GRID TALK 2014 Advocacy and Engagement Forum On Distributed Generation BRIEFING BOOK News Clips US  vs.  Europe:  Energy  Battle  Heats  Up    CNBC    Daniel  Yergin    1/27/14   http://www.cnbc.com/id/101365772     One  of  the  biggest  themes  at  Davos  this  year  —  and  one  that  was  not  there  last  year  —  was   "competitiveness."  You  encountered  it  whether  in  the  public  sessions  in  the  Congress  Center,  or  in  the   private  sessions,  and  at  the  various  dinners  in  the  hotels  strung  along  the  Davos  Platz.   This  particular  rivalry  pits  the  United  States  head-­‐on  against  Europe.  And,  no  question  —  at  Davos  this   year,  the  United  States  was  judged  the  clear  winner,  much  to  the  dispirit  of  the  Europeans  trudging  back   along  the  icy,  snowy  streets  of  this  mountain  village.   This  concern,  however,  was  hardly  limited  to  the  annual  conclave  in  the  Swiss  Alps.  It  reverberated  with   simultaneous  developments  in  both  Brussels  and  Berlin  that  point  to  the  beginning  of  a  major,  if   difficult,  rethink  of  Europe's  energy  policies.     Of  course,  competitiveness  among  nations  gets  measured  in  many  different  ways.  Sometimes,  it  is  in   terms  of  rule  of  law  and  sanctity  of  contracts,  regulatory  predictability,  risks  of  litigation  and  class-­‐ actions  suits  —  or  even  the  length  of  time  it  takes  to  start  a  new  business.   But  this  year  at  Davos,  it  was  calibrated  along  only  one  axis  —  energy.  And  that  measure  is  creating   great  angst  for  European  industry.  It  is  also  emerging  as  a  challenging  issue  for  policy  makers,  who,  until   now,  have  been  quite  assured  that  Europe  was  on  the  right  course  when  it  came  to  energy  policy.     It  all  comes  down  to  shale  gas  and  the  energy  revolution  it  has  triggered  in  the  United  States.  As  a  result   of  the  rapid  advance  of  shale  technology,  the  United  States  now  has  an  abundance  of  low-­‐cost  natural   gas  —  at  one-­‐third  the  price  of  European  gas.  European  industrial  electricity  prices  are  twice  as  high  as   those  in  some  countries  and  are  much  higher  than  those  in  the  United  States.  To  a  significant  degree,   this  is  the  result  of  a  pell-­‐mell  push  toward  high-­‐cost  renewable  electricity  (wind  and  solar),  which  is   imposing  heavy  costs  on  consumers  and  generating  large  fiscal  burdens  for  governments.  In  Germany,  it   was  further  accentuated  by  the  premature  shutdown  of  its  existing  nuclear  industry  after  the  2011   Fukushima  nuclear  accident  in  Japan.   All  this  puts  European  industrial  production  at  a  heavy  cost  disadvantage  against  the  United  States.  The   result  is  a  migration  of  industrial  investment  from  Europe  to  the  United  States  —  what  one  CEO  called   an  "exodus."  It  involves,  not  only  energy-­‐intensive  industries  like  chemicals  and  metals,  but  also   companies  in  the  supply  chains  that  support  such  industries.   A  year  ago  at  Davos,  this  question  was  hardly  evident.  I  can  recall  only  one  discussion  on  the  topic  last   year,  and  it  was  over  a  cup  of  coffee  in  the  cramped  lounge  halfway  up  the  main  staircase.  But  this  year,   the  issue  was  at  the  top  of  the  agenda.  In  one  session  I  attended,  a  senior  European  official  declared   that  Europe  needs  to  wake  up  to  the  "strategic  reality"  that  shale  gas  in  the  United  States  is  a  "total   game  changer."  Without  a  change  in  policies  at  both  the  European  and  national  levels,  he  warned,   Europe  "will  lose  our  energy  intensive  industries  —  and  we  will  lose  our  economy  long  term."     Yet  the  competitiveness  gap  will  continue  to  expand  as  Europe  remains  locked  in  a  path  of  still-­‐higher   costs  —  unless  there  is  a  change  in  policy.  And  the  first  signs  of  a  potential  change  of  policy  abruptly   emerged  in  both  Brussels  and  Berlin  during  Davos  week.  European  policy  makers,  struggling  with  already   high  unemployment,  have  begun  to  visualize  the  further  job  loss  that  will  result  from  shutting  down   1     European  plants.  They  have  also  started  to  pay  attention  to  the  2.1  million  jobs  in  in  the  United  States   supported  by  the  unconventional  oil  and  gas  revolution.   In  Brussels,  coinciding  with  the  first  day  of  Davos,  the  European  Commission  released  a  new  policy  paper   on  energy  and  climate.  It  reiterated  the  commitment  to  substantial  growth  in  renewable  electricity  and   a  "low-­‐carbon  economy."  But,  for  the  first  time,  it  put  heavy  emphasis  on  the  price  of  such  policies  and   called  for  a  "more  cost-­‐efficient  approach"  to  renewables.  It  warned  of  the  mortal  risk  facing  "industries   that  have  high  share  of  energy  costs  and  which  are  exposed  to  international  competition."  It  declared   that  policies  have  to  promote  "competitive"  as  well  as  "sustainable  energy"  —  a  juxtaposition  that  was   not  heard  before.  It  even  warned  that  "the  rapid  development  of  renewable  energy  sources  now  poses   new  challenges  for  the  energy  system."   Notably,  the  new  policy  statement  went  out  of  its  way  to  observe  that  "the  availability  of  shale  gas  in   the  USA  has  substantially  lowered  natural  gas  prices  there  as  well  as  electricity  generated  from  natural   gas."  Despite  the  fervent  opposition  to  shale  gas  in  some  quarters  in  Europe,  it  pointedly  included  shale   gas  as  among  the  domestic  low-­‐carbon  energy  sources  that  member  countries  can  pursue.   This  was  all  the  more  significant  in  that  the  commission  is  acknowledging  the  reality  of  the  shale   revolution  and  rejecting  the  view  of  Europe's  anti-­‐shale  activists  that  America's  shale  gas  abundance  is   only  a  "bubble,"  destined  to  soon  disappear.   A  similar  message  resounded  at  exactly  the  same  time  from  Berlin.  Sigmar  Gabriel,  the  social  democratic   minister  of  economy  and  energy  in  Germany's  coalition  government,  called  for  reform  in  Germany's   Energiewende  —  or  "energy  turn"  policy  —  which  has  heavily  subsidized  the  rapid  growth  in  renewable   electricity.  He  warned  that  the  "anarchy"  in  renewable  energy  and  its  costs  in  Germany  had  to  be  reined   in:  "The  whole  economic  future  of  our  country  is  riding  on  this,"  he  said.  "We  have  reached  the  limits  of   what  we  can  ask  of  our  economy."   Up  until  now,  the  Energiewende  in  its  present  form  has  been  sacrosanct,  supported  not  just  by  the   Greens  but  all  across  the  political  spectrum.  Gabriel  —  and  Chancellor  Angela  Merkel  —  aim  to  maintain   the  commitment,  but  reduce  subsidies,  focus  more  on  costs,  and,  as  Gabriel  said,  "control  the  expansion   of  renewable  energy."   His  comments  reflect  the  recognition  that,  if  the  course  remains  unchanged,  Germany  could  be  facing   what  Gabriel  called  "a  dramatic  deindustrialization."  And  that  would  threaten  Germany's  prosperity,   which  hinges  to  a  considerable  degree  on  Germany's  international  competitiveness.  Exports  are   responsible  for  over  50  percent  of  German  GDP,  compared  to  27  percent  for  China,  which  is  generally   considered  to  be  the  workshop  of  the  world.   Gabriel's  comments  stirred  up  criticism  from  environmentalists;  indeed,  they  may  seem  strange  words   coming  from  the  leader  of  the  Social  Democrats  (the  SPD).  But  the  Social  Democrats  are  very  close  to   the  trade  unions,  for  which  loss  of  competitiveness  translates  into  loss  of  jobs.   And  it  is  jobs,  as  much  the  specter  of  "deindustrialization,"  the  disinvestment  in  industry,  that  is  now   making  competitiveness  a  significant  part  of  Europe's  energy  debates,  especially  on  a  continent  where   unemployment  is  so  high.  The  risk  of  major  job  loss  could  well  provide  the  political  stimulus  to  moderate   energy  policies  in  order  to  narrow  the  trans-­‐Atlantic  gap  that  was  so  evident  a  theme  this  year  at  Davos.   2         Hawaii’s  Solar  Energy  Revolution    Honolulu  Magazine    David  Thompson    February  2014       http://www.honolulumagazine.com/Honolulu-­‐Magazine/February-­‐2014/Hawaiis-­‐Solar-­‐Energy-­‐ Revolution/     It  wasn’t  long  ago  that  a  company  called  Hawaiian  Telcom  reigned  supreme  over  phone  calls  in  Hawaii.  If   you  talked  on  the  telephone,  your  voice  traveled  through  Hawaiian  Telcom’s  copper  wires.  But  as   cellphones  became  more  affordable,  demand  for  phones  tied  to  walls  plummeted.  By  2009  the  once-­‐ mighty  phone  company  was  in  bankruptcy,  reorganizing  itself  and  trying  to  figure  out  how  to  be  relevant   in  a  world  where  everybody  and  their  teenagers  were  awaiting  the  release  of  the  latest  iPhone.   A  similar  shake-­‐up  is  underway  with  another  old-­‐line  utility,  Hawaiian  Electric  Co.  It’s  being  driven  by   people  such  as  Donald  Jay,  a  retired  civil  service  worker  who  lives  in  a  cul  de  sac  in  Mililani.  Last  April,   Jay  put  a  solar  photovoltaic  system  on  his  rooftop.  It  generates  more  electricity  than  Jay  uses,  and  he’s   slashed  his  electric  bill  to  HECO’s  minimum  $17  charge.  “I  was  paying  about  $850  a  month,  because  I   have  air  conditioning  and  a  lot  of  appliances,”  says  Jay.  “I  hardly  pay  anything  anymore.  That  really   makes  me  happy.”     That  kind  of  happiness,  multiplied  by  the  26,000  other  Oahu  homeowners  with  PV  on  their  rooftops,   threatens  to  undo  HECO  in  the  same  way  that  cellphones  in  everyone’s  pockets  undid  Hawaiian  Telcom.     In  the  world  of  cheap  photovoltaics  and  other  emerging  home  energy  technologies,  you,  the  ratepayer,   are  no  longer  helpless  in  the  face  of  sky-­‐high  electric  bills,  unable  to  do  anything  beyond  using  Energy   Star  appliances  and  yelling  at  the  kids  to  shut  off  the  lights.  The  power  to  make  and  store  power  is   shifting  to  your  court.  The  dawn  of  the  age  of  energy  democracy  is  upon  us.  The  grid  is  flipping.  And  if   HECO  doesn’t  reinvent  itself  in  a  big  way—and  soon—it  could  go  the  way  of  the  landline.     That  might  sound  like  the  ravings  of  technology  futurists  or  the  wishful  thinking  of  HECO  haters,  but  it’s   actually  what  the  electric  utility  industry  itself  is  saying.     The  Edison  Electric  Institute,  the  trade  group  for  investor-­‐owned  electric  companies,  such  as  HECO,   warns  that  solar  panels  and  other  emerging  technologies  pose  a  serious  threat  to  the  industry’s  health,   well-­‐being  and  shareholders.  In  a  landmark  report  that  made  a  big  splash  in  wonky  energy-­‐policy  circles   last  year,  the  Institute  said:     “One  can  imagine  when  battery  storage  technology  or  micro  turbines  could  allow  customers  to  be   electric  grid  independent.  To  put  this  in  perspective,  who  would  have  believed  10  years  ago  that   traditional  wire  line  telephone  customers  could  economically  ‘cut  the  cord?’”     See?     The  Institute  warned  of  a  death-­‐spiral  scenario,  in  which  utilities  make  up  for  the  revenue  lost  on  their   PV-­‐owning  customers  by  raising  the  rates  on  their  other  customers.  That  encourages  some  of  them  to   get  PV,  which  sends  rates  even  higher,  which  makes  PV  even  more  attractive.  Edison  suggested  that  a   short-­‐term  solution  is  for  utilities  to  go  after  their  free-­‐riding  PV  customers,  who  are  enjoying  all  the   3     benefits  of  having  the  grid  as  their  backup  battery  while  barely  paying  a  thing  for  the  privilege.  In  the   long  run,  utilities  must  deal  with  “the  threat  of  disruptive  forces”  and  assess  “new  business  models   where  utilities  can  add  value  to  customers  and  investors  by  providing  new  services.”  In  other  words,   figure  out  how  to  remain  relevant  while  they  still  can.  What  that  would  look  like,  Edison  didn’t  say.     For  its  part,  HECO  says  it  is  well  aware  of  Hawaii’s  rapidly  changing  energy  landscape,  and  it  is  adapting.   “We  are  engineering  the  ‘reinvention’  you  ask  about  right  now  while  we  keep  service  to  our  customers   as  safe,  reliable  and  low-­‐cost  as  possible,”  said  Scott  Seu,  HECO’s  vice  president  of  energy  resources  and   operations,  in  a  written  statement  to  HONOLULU  Magazine.  What  that  reinvention  will  look  like,  Seu   didn’t  say.     Energy  experts  fear  that  HECO  isn’t  moving  fast  enough,  and  that  if  the  utility  ever  fails,  taxpayers  will  be   on  the  hook.  “We’re  all  looking  for  HECO  to  lay  out  a  clear  pathway  in  which  it  can  possibly  operate  and   prosper  in  this  new  energy  climate,”  says  Mark  Glick,  head  of  the  state  Energy  Office.  “We  haven’t  seen   that  yet.”     Last  fall,  state  Rep.  Chris  Lee,  chair  of  the  House  Committee  on  Energy  and  Environmental  Protection,   put  HECO  executives  on  the  spot  at  a  legislative  briefing  when  he  asked  how  the  utility  planned  to  adapt   if  customers  started  leaving  the  grid  altogether.  HECO  executives  could  not  give  him  an  answer.     “I  really  think  HECO  is  on  a  very  short  timeline,”  Lee  says.  “They  probably  have  a  few  years  left  to   radically  change  their  business  model  and  the  way  they  operate  to  keep  up  with  the  changing   technology  and  the  marketplace,  which  could  very  well  leave  them  in  irrelevancy.”   Even  without  the  gloomy  forecasts  of  its  demise,  HECO  had  a  rough  2013.  The  utility’s  five-­‐year  plan  for   meeting  the  state’s  ambitious  renewable  energy  goals  was  harshly  critiqued  by  the  state.  HECO’s   regulator,  the  Public  Utilities  Commission,  filled  by  Gov.  Neil  Abercrombie  with  fresh  appointees,   asserted  that  it  would  no  longer  play  the  traditional  role  of  rubber  stamp.  Robbie  Alm,  the  long-­‐time   public  face  of  HECO,  stepped  down  in  July,  and  by  the  end  of  the  year  he  had  yet  to  be  replaced.  On  top   of  all  that,  Hawaii’s  booming  solar  industry  continued  to  load  the  electric  grid  with  unprecedented   amounts  of  intermittent  PV  power,  enabling  an  increasing  number  of  HECO  customers  to  slash  their   electric  bills.     The  solar  industry  in  Hawaii  has  quickly  grown  into  a  force  to  be  contended  with,  roughly  doubling  in   size  each  year  from  2008  to  2012.  Rapidly  dropping  PV  prices  combined  with  generous  tax  credits,  the   highest  electricity  rates  in  the  nation  and  the  abundance  of  Hawaii  sunshine  drove  this  meteoric  growth   and  drew  hundreds  of  contractors  and  other  businesses—some  more  reputable  than  others—to  the   gold  rush.     Installations  peaked  in  2012,  when  more  PV  was  installed  than  in  all  the  previous  years  combined.  The   industry  slowed  a  bit  as  it  entered  2013,  thanks  in  part  to  new  Department  of  Taxation  rules  that  closed   a  loophole  allowing  homeowners  to  claim  multiple  tax  credits  for  the  same  PV  project.  Then,  last   September,  it  slammed  into  a  wall.     That’s  when  HECO  announced  that  so  much  PV  had  been  connected  to  parts  of  Oahu’s  electric  grid,   some  circuits  simply  couldn’t  take  anymore.  Of  the  416  individual  circuits  the  grid  comprises,  81  of   them,  or  19  percent,  were  saturated  with  solar,  the  utility  said  at  the  time.  Adding  more  PV  to  maxed-­‐ out  circuits  raised  the  potential  for  voltage  spikes,  which  could  cause  problems  ranging  from  flickering   4     lights  to  electrocuted  powerline  workers.       From  that  point  onward,  HECO  declared,  would-­‐be  PV  customers  must  contact  the  utility  to  find  out   whether  or  not  there  was  room  on  the  circuit  for  them  before  they  installed  their  solar  systems.  If  there   was  room,  the  customer  might  have  to  foot  the  bill  for  equipment  upgrades  to  protect  the  grid.   Furthermore,  studies  would  have  to  be  done  before  PV  projects  could  proceed.  How  much  the  upgrades   might  cost  or  how  long  the  studies  might  take,  HECO  couldn’t  say.  But  according  to  reports  from  the   Neighbor  Islands,  where  HECO’s  sister  companies  have  implemented  similar  policies,  customers  were   waiting  12  to  18  months  to  find  out  if  they  could  even  hook  their  solar  systems  onto  the  grid,  and   equipment  upgrades  cost  them  thousands  of  dollars.     Homeowners  hoping  to  put  PV  on  their  roofs  were  thrown  into  solar  limbo,  with  hundreds  of  planned   installations  put  on  hold.  Solar  contractors  screamed  foul.  Legislators  held  briefings.     A  group  of  stakeholders  was  assembled  to  explore  workarounds  that  might  allow  the  utility  to  scooch  up   the  PV  saturation  threshold  a  bit.  By  the  end  of  the  year,  though,  no  scooching  had  been  announced.     In  the  meantime,  the  solar  industry  found  its  own  workaround:  batteries.     Off-­‐the-­‐grid  hippies  on  the  Neighbor  Islands  have  been  using  them  with  their  PV  systems  for  decades.   Why  not  Oahu  residents  in  solar-­‐saturated  neighborhoods?  As  long  as  excess  energy  is  stored  in  the   batteries  and  not  pushed  back  onto  the  grid,  the  reasoning  went,  the  voltage  spike  problem  was  solved.   So  too  was  the  problem  of  marketing  PV  in  solar-­‐saturated  neighborhoods.  A  PV  owner  opting  for   batteries  wouldn’t  be  able  to  participate  in  HECO’s  net-­‐energy-­‐metering  program,  in  which  the  excess   solar  watts  a  home  produces  are  credited  against  whatever  watts  the  home  draws  from  the  grid  when   it’s  dark  or  cloudy.  But  that  would  hardly  matter  to  someone  on  a  maxed-­‐out  circuit  who  wanted  solar   badly  enough.     With  encouragement  from  the  Hawaii  Solar  Energy  Association,  which  held  battery  seminars  last  fall  to   bring  its  members  up  to  speed,  solar  contractors  began  touting  batteries  as  the  solution  to  HECO’s   roadblocks.  “Get  solar  now,”  one  full-­‐page  newspaper  ad  read.  “No  waiting  for  utility  approval.  No   added  grid  upgrade  costs.”     “We  are  so  much  more  flexible  than  the  utility,”  says  Rolf  Christ,  HSEA’s  secretary  and  owner  of   Hawaiian  Island  Solar.  “If  they  throw  one  rule  at  us,  we  throw  a  solution  back.  Nobody  can  afford  to  just   stop  installing.”     Then  HECO  cleared  its  throat  and  clarified  the  rules.  In  the  final  days  of  2013  it  began  running  its  own   newspaper  ads  to  explain  that,  as  long  as  a  home  is  still  attached  to  the  grid,  batteries  don’t  change  a   thing.  “PV  systems  with  battery  backup  must  also  get  an  initial  review  by  your  utility  to  ensure  the   interconnection  is  done  right,”  the  ad  stated.  “PV  systems  that  are  prematurely  interconnected  could  be   turned  off  by  your  utility.”   While  demand  for  battery  systems  on  Oahu  has  hardly  been  overwhelming,  there  have  been  a  few   takers.  Bernie  Boltz,  who  lives  in  a  PV-­‐saturated  Aina  Haina  neighborhood,  is  one  of  them.  His  $43,000   system  (before  tax  credits)  features  a  dozen  12-­‐volt  lead  batteries,  which  look  a  lot  like  ordinary  car   batteries  and  fit  into  an  outdoor  utility  closet.  The  system  was  so  new  it  was  being  installed  in  December   as  HONOLULU  Magazine  watched,  right  before  HECO  clarified  the  rules.  “I  don’t  think  it  was  a  great  leap   5     of  faith  to  do  this,”  Boltz  said  at  the  time.  “I  couldn’t  get  solar  any  other  way.”     Not  everyone  in  the  industry  jumped  on  the  battery  bandwagon.  Mark  Duda,  vice  president  of   RevoluSun,  believes  the  daily  attention  to  voltage  and  other  hassles  that  current  battery  technology   entails  are  more  than  most  customers  are  ready  for.  “In  our  judgment,  it’s  not  the  right  answer  for  most   people,”  he  says.     Duda  is  part  of  the  working  group  that’s  been  exploring  ways  to  raise  the  PV  saturation  threshold.  He’s   optimistic  that  a  fix  can  be  found  and  that  HECO  will  eventually  embrace  more  widespread  use  of  home   PV.  “Hopefully,  this  is  the  point  where  they  get  on  the  path  to  living  with  PV  in  a  meaningful  way,   accepting  it  as  a  large  share  of  generation,  and  starting  to  work  really  seriously  on  a  business  model  that   works  in  that  context  for  them  and  all  of  the  ratepayers,”  he  says.     Still,  he  can  envision  a  day  when  the  technology  and  the  economics  of  severing  your  ties  to  HECO   altogether  start  to  make  sense.  Says  Duda:  “I  think  that  at  some  point  we’ll  be  in  a  situation  where  the   customer  will  be  able  to  say  to  the  utility,  ‘What’s  in  it  for  me?  Convince  me  to  stay.’  That  will  be  a  really   interesting  time.”   SOLAR  BY  THE  NUMBERS   Hawaii’s  historically  sky-­‐high  cost  of  conventional  electricity  has  fueled  a  boom  in  residents  and   businesses  investing  in  photovoltaic  systems  to  get  away  from  fossil  fuels.  The  steep  increase  slowed  last   year  in  the  wake  of  tougher  tax  credits  and  saturated  neighborhoods.  Expect  more  proposed  changes  to   the  state’s  renewable  energy  tax  credit  as  lawmakers  learn  how  much  the  credits  have  cost  the  general   fund  coffers  so  far.   KNOW  YOUR  RENEWABLES   Hawaii  has  a  rich  variety  of  potential  renewable  energy  sources.  Here's  a  quick  guide.   SOLAR   Nearly  one  out  of  10  residential  rooftops  on  Oahu  is  now  adorned  with  solar  photovoltaic  panels.   There’s  so  much  PV  out  there  that  Hawaiian  Electric  Co.  has  slapped  a  virtual  moratorium  on  adding  any   more  in  some  neighborhoods  while  it  studies  the  technical  issues  involved  with  having  unprecedented   amounts  homemade  power  on  the  grid.  (See  main  story.)     Meanwhile,  HECO  is  seeking  fast-­‐track  approval  from  the  Public  Utilities  Commission  to  have  nine  large-­‐ scale  solar  farms  developed.  They  would  produce  about  240  megawatts  of  power  and  offer  some  relief   to  ratepayers  from  the  high  cost  of  fuel  oil.  The  utility  says  power  from  the  solar  farms  would  cost  about   15.8  cents  per  kilowatt  hour,  compared  with  rates  as  high  as  22.7  cents  per  kilowatt  hour  at  its  fossil-­‐ fuel-­‐fired  power  plants.     What  to  watch:  Where  will  all  of  these  solar  farms  be  built?  How  much  land  will  they  need?  And  which— if  any—of  HECO’s  fossil-­‐fuel-­‐run  power  stations  will  be  decommissioned  when  the  solar  farms  come   online?  So  far,  HECO’s  not  saying.   WIND   A  proposed  wind  farm  on  Molokai  was  defeated  by  intense  local  resistance.  A  similar  project  on  Lanai   appears  all  but  dead.  Kauai  might  have  too  many  endangered  native  birds  to  introduce  the  giant,  bird-­‐ killing  blades  of  wind  turbines  into  the  environment.  But  successful  wind  farms  have  been  built  on  Oahu,   6     Maui  and  the  Big  Island.  Their  combined  output  accounts  for  some  30  percent  of  all  the  renewable   energy  in  the  state.     While  Maui  and  the  Big  Island  have  Hawaii’s  best  wind-­‐farm-­‐quality  wind,  O‘ahu  is  doing  its  part  with   two  wind  farms  on  the  North  Shore.  The  30-­‐megawatt,  12-­‐turbine  Kahuku  Wind  Farm  began  generating   electricity  in  2011.  A  2012  battery  fire  knocked  it  out  of  commission  for  more  than  a  year,  but  it  went   back  online  in  late  2013.  Also  in  2012,  the  69-­‐megawatt  Kawailoa     Wind  project  on  the  hills  outside  of  Haleiwa  came  online.  Its  30  enormous  turbines  can  be  seen  for  miles   around,  outraging  some  North  Shore  residents  who  object  to  the  visual  impact.  A  third  wind  farm  has   been  proposed  for  development  in  Kahuku,  but  it’s  far  from  a  done  deal.     What  to  watch:  The  Oahu-­‐Maui  grid  tie-­‐in.  Oahu  doesn’t  have  the  best  wind  or  many  more  suitable  sites   for  wind  farms,  but  Maui’s  got  wind  to  spare.  If  the  interisland  cable  connection  that  the  state  is  pushing   becomes  reality,  wind  power  could  light  up  more  Honolulu  homes  than  ever.   GEOTHERMAL   The  development  of  geothermal  energy,  which  taps  volcanic  steam  found  a  mile  or  more  beneath  the   earth’s  surface,  is  a  high  priority  among  state  energy  planners.  Hawaii’s  only  existing  geothermal  plant,   Puna  Geothermal  Venture,  produces  about  20  percent  of  all  the  renewable  energy  generated  in  the   state—every  watt  of  which  stays  on  the  Big  Island.  The  Island’s  electric  utility,  the  Hawaii  Electric  Light   Co.,  wants  to  up  the  Island’s  current  38  megawatts  of  production  to  88  megawatts.  The  state  and  Hawaii   County  are  battling  over  who  gets  to  decide  where  that  future  development  would  occur.  Meanwhile,   an  anti-­‐geothermal  movement  in  Puna  is  trying  to  block  further  development  there,  and  former  Native   Hawaiian  opponents  of  geothermal—including  Mililani  Trask—are  now  part  of  a  venture  seeking  to  land   the  next  geothermal   development  contract.     What  to  watch:  The  interisland  cable  grid  tie.  Ultimately,  the  state  wants  to  connect  the  electrical  grids   of  Oahu,  Maui  and  the  Big  Island  via  undersea  cables.  If  it  succeeds,  Big  Island  volcanoes  could  one  day   illuminate  Honolulu’s  skyline.     BIOMASS   Basically,  anything  that  can  be  burned  to  produce  power  counts  as  biomass.  In  Hawaii  that  ranges  from   the  municipal  waste  incinerated  at  Honolulu  County’s  HPOWER  plant  to  the  eucalyptus  trees  Hawaii   Electric  Light  Co.  plans  to  burn  on  the  Big  Island.     What  to  watch:  A  Mainland  company  called  Zilkha  Biomass  Energy  is  vying  to  supply  HECO’s  Kalaeloa   power  plant  with  “black  pellets”  made  from  diseased  trees  harvested  from  the  pine-­‐bark-­‐beetle-­‐infested   forests  of  British  Columbia.   HYDROELECTRIC   Hawaii’s  granddaddy  of  renewables  dates  to  1888,  when  the  newfangled  electric  light  bulbs  of  Honolulu   were  powered  by  turbines  spun  by  the  flowing  water  of  Nuuanu  Stream.  Hydro  no  longer  lights  the  city,   but  it  still  has  a  place  on  Neighbor  Island  electric  grids.  Eight  hydro  plants  on  rainy  Kauai  (including  one   dating  to  1908)  generate  nearly  10  percent  of  the  Island’s  power.  According  to  a  2013  study  by  the  Oak   Ridge  National  Laboratory  National  Hydropower  Asset  Assessment  Program,  Hawaii  has  the  potential  to   develop  145  megawatts  of  new  hydropower.   7       What  to  watch:  Molokai.  A  proposed  project  there  would  use  excess  solar  power  to  pump  water  to  an   uphill  storage  reservoir  during  the  day.  At  night,  the  water  would  flow  to  a  lower  reservoir,  generating   hydropower  along  the  way.  This  “pumped  storage  hydro”  project  is  in  the  early  stages  of  development,   but  if  all  goes  as  planned,  it  could  produce  80  to  90  percent  of  Molokai’s  electricity.   OCEAN   Experiments  in  harnessing  wave  energy  have  been  underway  in  the  waters  off  Marine  Corps  Base   Hawaii  since  2004.  A  milestone  was  reached  in  2010  when  the  first  wave-­‐generated  electricity  ever   transmitted  to  a  U.S.  electrical  grid  was  produced  by  a  yellow,  40-­‐kilowatt  buoy  bobbing  off  the  base.   The  research  continues.     Meanwhile,  at  Keahole  Point  on  the  Big  Island,  research  continues  into  ocean  thermal  energy  conversion   (OTEC),  which  generates  power  using  the  temperature  differences  between  deep  sea  water  and  warm   surface  waters.  OTEC  has  been  in  development  since  the  1970s,  but  no  commercial  OTEC  plant  has  been   built.  Yet.     What  to  watch:  HECO  has  been  in  talks  with  a  handful  of  developers  to  build  an  OTEC  plant  on  O‘ahu’s   west  side.  Look  for  a  possible  deal  to  be  announced  this  year.   BIOFUEL   Biofuels  offer  the  promise  of  replacing  or  blending  liquid  fossil  fuels  with  liquid  fuel  made  from  plant   oils.  Biodiesel,  for  instance,  has  long  been  made  in  the  Islands  from  used  cooking  oil  and  grease  trap   waste  from  restaurants.  Fuel  oil  and  jet  fuel  can  also  be  produced  from  vegetable  oils.  According  to  the   Hawaii  State  Energy  Office,  Hawaii  has  136,000  acres  of  unused  farm  land  that  could  be  planted  in   biofuel  crops—enough  to  produce  roughly  160  million  gallons  of  oil  per  year.  If  industrial  scale   production  of  biofuel  crops  on  agricultural  land  ever  takes  off,  it  will  require  massive  amounts  of  water,   which  will  inevitably  lead  to  conflicts.     What  to  watch:  Algae.  Are  these  fast-­‐growing  aquatic  life  forms  the  biofuel  crop  of  the  future?  A  pilot   project  using  marine  algae  to  produce  biofuel  is  underway  on  the  Big  Island,  and  another  is  planned  for  a   34-­‐acre  site  near  Wahiawa.   Solar  Panel  Installations  Push  Electric  Utilities  to  the  Brink    West  Hawaii  Today    Colin   Stewart    2/2/14   http://westhawaiitoday.com/news/local-­‐news/solar-­‐panel-­‐installations-­‐push-­‐electric-­‐utilities-­‐brink     As  a  result  of  the  high  number  of  rooftop  solar  photovoltaic  installations  in  2013,  Hawaii’s  electric   utilities  are  warning  that  some  areas  are  reaching  the  saturation  point.   Meanwhile,  Big  Island  PV  system  installers  say  they’re  beginning  to  see  demand  for  their  services  slow   as  competition  mounts.     A  total  of  17,609  installations  were  performed  statewide  last  year,  adding  more  than  129  megawatts  in   capacity  to  the  Hawaiian  Electric,  Maui  Electric  and  Hawaii  Electric  Light  Co.  grids.  That  represents  a  39   percent  increase  compared  to  what  was  added  to  the  system  in  2012.     As  of  Dec.  31,  Hawaiian  Electric  companies’  grids  had  taken  on  a  total  of  40,159  photovoltaic  system   interconnections,  generating  a  total  capacity  of  300  MW.  That  includes  5,355  installations  on  Hawaii   Island,  producing  up  to  38  MW  of  electric  capacity.  That  number  represents  7  percent  of  Big  Island   HELCO  customers.   8     According  to  Hawaiian  Electric,  96  percent  of  the  state’s  solar  installations  use  net  metering,  a  program   begun  in  2001  with  the  intention  of  encouraging  the  adoption  of  rooftop  solar.  The  program  allows   customers  with  rooftop  solar  to  receive  full  retail  credit  for  energy  they  generate  and  send  to  the   electric  grid.  They  use  that  credit  to  offset  the  costs  associated  with  energy  they  take  from  the  grid   when  solar  power  doesn’t  meet  their  needs,  such  as  at  night  or  on  cloudy  days.     The  “unprecedented  rapid  growth”  in  rooftop  solar  has  created  a  situation  where  some  neighborhood   circuits  host  large  amounts  of  PV  systems,  with  an  increasing  number  of  those  circuits  reaching  points   where  the  connected  PV  systems  generate  more  capacity  than  is  used  by  the  entire  circuit.     “We  have  this  past  year  encountered  a  situation  where  the  amount  of  PV  that  people  are  applying  to   connect  to  the  circuit  reaches  a  point  where  we  have  concerns,  either  with  the  voltage  quantity  or   safety  issues,”  said  Jay  Ignacio,  HELCO  president.  “We’re  currently  at  the  level  (on  Hawaii  Island)  where   10  percent  of  our  circuits  have  reached  that  point,  where  we  have  to  tell  people  applying  to  add  PV  that   they  need  to  wait.”     Ignacio  explained  that  circuits  that  generate  more  electricity  than  is  being  used  by  customers  can  create   situations  where  voltage  is  increased  and  damage  can  be  done  to  electronic  equipment  in  homes  and   businesses,  including  computers  and  other  appliances  that  may  contain  sophisticated  electronics.     “If  there’s  more  generation  than  energy  being  used,  the  energy  needs  to  go  some  place.  …  This  is  a   difficult  technical  issue,  and  we’re  not  aware  of  another  utility  in  the  world  that  has  addressed  it.   There’s  no  model  for  us  to  follow,  no  resource  for  us  to  tap  into.  We’re  really  creating  new  frontiers  on   this,”  he  said.     Ignacio  admitted  that  delays  caused  by  “transient  over-­‐voltage”  can  be  very  frustrating  to  customers,   but  said  that  as  of  right  now,  it’s  the  only  way  to  ensure  the  electric  grid  remains  safe  for  all  customers.     HELCO  engineers  are  entertaining  several  different  ideas  to  handle  the  problem,  but  have  yet  to  settle   on  anything  concrete.     One  way  might  be  to  set  up  a  system  where  HELCO  can  use  appliances  connected  to  the  circuit  to  create   more  of  a  load  when  it  encounters  an  over-­‐voltage.  By  transferring  the  excess  energy  into  something   such  as  a  water  heater,  the  system  can  balance  itself  out.  But,  he  said,  many  of  those  appliances  were   never  designed  for  such  a  purpose,  and  setting  them  up  to  be  used  in  such  a  way  could  be  problematic.     Another  concept  being  explored  is  a  large  battery  bank  that  can  store  excess  energy.  That  too,  has  its   drawbacks.     “The  economics  of  such  a  system  just  may  not  play  out,”  he  said.     Marco  Mangelsdorf,  president  of  Hilo-­‐based  photovoltaic  system  installer  ProVision  Solar,  said  that   delays  customers  are  experiencing  have  not  yet  made  a  major  impact  on  his  business,  but  he  can  see  the   writing  on  the  wall.     “I  have  maybe  a  handful  of  clients  who  have  been  put  on  hold  because  of  a  saturated  circuit,  with  a   number  of  customers  who  have  been  waiting  a  year,”  he  said.  “I’m  not  able  to  proceed  with  a  sale   because  of  saturated  circuits.  But,  I  have  a  couple  of  colleagues  on  Oahu,  areas  with  much  higher   population,  where  they’re  running  into  this.  They  say  that  it  could  be  50  or  60  percent  of  their  sales  are   getting  the  red  light  from  HECO.”     Meanwhile,  he  said,  last  year’s  boom  in  solar  sales  has  attracted  a  lot  of  competition.     “When  we  started  in  1998,  we  had  maybe  five  or  10  competitors.  Now  there  are  dozens  and  dozens,   including  a  number  of  folks  from  other  islands.  The  competition  is  beyond  fierce.  And  as  the  PV  pie   9     continues  to  shrink,  which  is  what  we’re  witnessing,  we  know  that  the  competition  is  going  to  be   unsustainable  at  this  profit  level.  I  think  we’re  going  to  see  a  consolidation  in  the  industry,  where  a   number  of  major  and  minor  players  will  be  necessarily  dropping  out  because  of  the  contracting  pie,”  he   said.     Despite  the  gloomy  outlook,  however,  Mangelsdorf  said  he  has  been  impressed  with  HELCO’s  response   to  the  technical  issues  that  are  helping  to  slow  his  industry’s  growth.     “The  utility  companies  have  been  having  a  more  and  more  challenging  time  to  be  able  to  accommodate   this  explosive  growth  in  PV,”  he  said.  “What  HELCO’s  been  doing,  and  I  salute  them  for  this,  is  they  are   pushing  the  limits  as  to  just  how  much  an  isolated  island  utility  can  actually  accommodate  in  terms  of   nonfirm  power  being  generated  and  fed  into  the  grid  —  not  just  big  plants,  but  including  mom-­‐and-­‐pop,   residential  systems.     “We  are  all  participating  in  a  grand  experiment.  How  far  can  a  utility  go  in  accepting  nonfirm  power?  As   of  last  year,  more  than  40  percent  of  the  kilowatt  hours  sold  by  HELCO  came  from  renewable  resources.   And  that  has  progressively  been  going  up.”     In  Solar-­‐Energy  Debate,  Colorado  Homeowners,  Business  Get  Their  Say  at  PUC    The  Denver   Post    Mark  Jaffe    2/3/14   http://www.denverpost.com/business/ci_25054726/sides-­‐get-­‐their-­‐say-­‐solar-­‐energy-­‐ debate?IADID=Search-­‐www.denverpost.com-­‐www.denverpost.com     Homeowners,  solar  installers  and  representatives  of  the  business  community  sparred  over  a  key  credit   for  rooftop  solar  panels  at  a  Colorado  Public  Utilities  Commission  hearing  Monday.   Xcel  Energy,  the  state's  largest  utility,  has  said  the  so-­‐called  net-­‐metering  credit,  currently  equal  to   about  10.5  cents  for  each  kilowatt-­‐hour  a  residential  solar  system  puts  on  the  grid,  is  too  high.   In  its  renewable-­‐energy  compliance  plan,  it  said  the  value  was  less  than  5  cents  a  kilowatt-­‐hour  and   called  for  a  reduction  in  the  credit  since  non-­‐solar  customers  were  carrying  the  extra  cost.   The  solar  industry  and  solar  advocates  challenged  Xcel's  figures,  saying  they  understated  solar's  value.   Last  week,  the  commission  decided  to  create  a  separate  case  to  review  net  metering.   At  Monday's  hearing,  held  by  Administrative  Law  Judge  Harris  Adams,  the  public  got  to  weigh  in  on  the   issue.   James  Hoffmeister,  a  retiree,  said  his  rooftop  installation  is  saving  him  $150  a  month.   "It  is  a  big  mistake  if  the  energy  associated  with  rooftop  solar  is  not  valued,"  Hoffmeister  said.   Business  groups,  however,  voiced  concerns  about  the  cost  of  solar  and  its  impact  on  rates.   "Keeping  energy  affordable  is  essential  to  the  economy  of  the  state,"  said  Carly  West,  a  spokeswoman   for  the  Colorado  Association  of  Commerce  and  Industry.   Mizraim  Cordero,  director  of  the  Colorado  Competitive  Council,  said  net  metering  had  a  "hidden  subsidy   —  not  everyone  is  paying  their  fair  share."   Solar-­‐industry  representatives  countered  that  Colorado's  solar  policies  had  built  a  vibrant  industry  in  the   state.   The  industry  employs  3,600  Coloradans  with  a  private  investment  of  $187  million  in  the  state  in  2012,   Hilary  Pearson,  a  representative  for  national  solar  installer  Sungevity,  testified.   10     Another  recurring  point  raised  by  people  testifying  was  that  solar  provides  a  energy  source  free  of   carbon,  which  is  released  in  burning  fossil  fuels,  and  has  been  linked  to  climate  change  in  scientific   studies.   "Net  metering  helps  us  move  to  a  clean  energy  grid,"  said  Chris  Hoffman,  a  Boulder  resident  who  has   solar  panels  on  his  roof.   Path-­‐Breaking  Agreement  to  Get  More  Clean  Energy  into  Our  Electric  System    Energy   Collective    Ralph  Cavanagh    2/13/14   http://theenergycollective.com/nrdcswitchboard/340221/path-­‐breaking-­‐agreement-­‐get-­‐more-­‐clean-­‐ energy-­‐our-­‐electric-­‐system       NRDC  and  the  Edison  Electric  Institute,  the  association  that  represents  all  of  the  nation’s  investor-­‐owned   electric  utilities,  are  releasing  a  joint  statement  this  week  that  recommends  significant  changes  to  how   the  utilities  providing  our  light  and  heat  are  regulated.  Our  aim  is  to  get  more  clean  energy  into   America’s  electric  system,  while  offering  a  new  perspective  on  utilities’  business  models.         Why  is  it  a  big  deal  that  NRDC  has  reached  agreement  on  these  core  regulatory  issues  with   an  association  that  represents  the  utilities  that  serve  more  than  220  million  Americans?       Because  our  nation’s  utilities  have  the  opportunity  to  make  vital  contributions  to  clean  energy  progress   as  investors  and  also  as  partners  with  innovators,  entrepreneurs  and  their  customers.     We’re  releasing  the  statement  at  the  winter  meetings  of  the  National  Association  of  Regulatory  Utility   Commissioners  in  Washington,  D.C.,  for  the  reason  that  the  nation’s  utility  commissioners  make  key  rate   decisions  that  can  support  utility  efforts  to  integrate  more  clean  energy  into  the  nation’s  electricity  grid.   NRDC  believes  regulators  should  make  sure  that  utilities  that  do  well  with  clean  energy  are  rewarded   appropriately  –  as  opposed  to  losing  money  automatically  when  electricity  sales  go  down,  which  is  too   often  the  norm  today.       No  longer  about  selling  more  electricity         NRDC  and  EEI  agree  that  the  electric  utility  business  can  no  longer  be  about  selling  more  electricity.   Instead,  it  needs  to  be  about  ensuring  that  people  have  reliable  and  steadily   improving    electricityservices  (starting  with  heating,  lighting  and  cooling)  and  better  environmental   quality.         That,  in  turn,  will  require  getting  more  work  out  of  less  electricity  through  energy  efficiency  and  also   creating  diversified  clean  energy  resource  portfolios  –  such  as  wind,  solar  and  geothermal  –that  are   second  to  none  in  overall  reliability.  And  we  will  need  to  make  our  grid  more  robust  to  take  full   advantage  of  these  clean  technologies  in  both  their  distributed  and  remote  forms.     Clean  energy  benefits  all  of  us,  led  by  the  No.  1  cleanest,  cheapest  resource  of  energy  efficiency:  helping   customers  use  less  electricity  so  there’s  less  need  to  buy  or  generate  power,  or  build  new  expensive   power  plants.  That  also  means  less  of  the  carbon  pollution  warming  our  planet  and  hurting  our  health.     Why  a  statement?     11     NRDC  has  worked  with  EEI  before,  and  the  latest  agreement  amends  earlier  versions  from  2003  and   2008,  which  both  emphasized  strategies  for  promoting  energy  efficiency  and  clean  energy  investment   more  generally.       This  joint  statement  retains  that  emphasis,  and  also  takes  into  account  recent  advances  in  technology   related  to  distributed  generation  (DG)  involving  onsite  generation  of  electricity  from  small  sources  such   as  solar  panels  –  along  with  a  clear  trend  in  reduced  electricity  sales  growth  for  utilities  nationwide   (which  has  mostly  been  driven  by  changes  in  consumption,  influenced  strongly  by  energy  efficiency   gains,  rather  than  by  DG  installations).     For  NRDC,  the  need  for  the  statement  begins  with  our  longstanding  belief  that  energy  efficiency  and  DG   advances,  if  properly  integrated,  should  be  seen  as  grid  enhancements  rather  than   grid  replacements,and  that  America’s  utilities  can  be  partners  in  clean  energy  progress.     This  agreement  affirms  NRDC’s  enduring  support  for  energy  efficiency  and  renewable  energy  resources,   including  in  particular  distributed  solar  power.       Energy  efficiency  and  DG  vs.  outdated  regulation     In  some  states,  the  significant  progress  of  innovative,  clean  distributed  technologies  has  clashed  with   outdated  theories  of  regulation,  pitting  utilities  against  clean  energy  companies.  The  joint  statement   reflects  NRDC’s  belief  that  clean-­‐energy-­‐oriented  business  model  changes  will  come  faster  and  more   successfully  to  the  utility  sector  if  the  utilities  themselves  are  in  support,  and  that  these  reforms   represent  a  better  way  forward.     We  know  that  it’s  possible  to  continue  to  speed  the  deployment  of  solar  power,  energy  efficiency,   electricity  storage,  electric  vehicles,  and  other  distributed  resources  while  making  important   investments  to  improve  resiliency  of  the  grid  and  create  opportunities  for  all  to  enjoy  the  benefits  of   these  technologies.  We’re  committed  to  working  with  all  the  stakeholders  involved  to  continue  to  try  to   achieve  these  goals.               The  statement  describes  a  bright  future  for  both  utilities  and  their  customers,  built  around  energy   efficiency  and  a  host  of  other  cost-­‐effective  and  environmentally  preferred  resource  and  grid   enhancements.     Now  the  really  difficult  work  begins,  because  none  of  this  can  happen  without  state-­‐by-­‐state   engagement,  involving  all  who  share  a  stake  in  the  transition  to  a  clean  energy  future,  with  state  utility   commissions  getting  the  final  say.       There  are,  of  course,  a  range  of  important  issues  on  which  NRDC  and  EEI  still  differ,  and  that  will  not   change  anytime  soon.  But  productive  engagement  is  always  welcome,  and  our  agreement  on  the  need   for  these  utility  business  model  changes  is  an  important  step  forward  for  clean  energy  and  the   environment.       New  electricity  tariffs  to  focus  on  service  not  kilowatts    Reuters    John  Kemp    2/13/14   http://www.reuters.com/article/2014/02/13/electrciity-­‐smart-­‐meters-­‐idUSL5N0LI2ZB20140213       12     Electricity  suppliers  should  be  paid  according  to  the  services  they  provide,  including  reliable  and   environmentally  friendly  heat,  light  and  power,  rather  than  the  quantity  of  electricity  they  supply,   according  to  green  groups  and  retailers  themselves.     "The  retail  electricity  distribution  business  should  not  be  viewed  or  regulated  as  if  it  were  acommodity   business,"  the  Edison  Electric  Institute  (EEI)  and  Natural  Resources  Defense  Council  (NRDC)  said  in  a  joint   statement  on  Wednesday.     "Instead  utility  businesses  should  focus  on  meeting  customers'  energy  service  needs."     Edison  is  an  association  that  lobbies  on  behalf  of  investor-­‐owned  power  companies  in  the  United  States,   while  NRDC  is  one  of  the  country's  most  prominent  green  groups  campaigning  for  action  to  reduce   global  warming.     In  their  joint  statement,  EEI  and  NRDC  called  on  regulators  to  break  the  link  between  utility  revenues   and  the  amount  of  electricity  sold  so  suppliers  have  an  incentive  to  provide  heat,  light  and  power  in  the   most  efficient  and  environmentally  friendly  way  -­‐  even  if  that  means  selling  less  electricity.   NEW  BUSINESS  MODEL     There  is  a  broad  consensus  that  the  power  industry  needs  to  update  its  century-­‐old  business  model.  But   achieving  that  shift  is  proving  unexpectedly  difficult,  as  it  runs  into  obstacles  from  regulators  and  some   of  the  power  companies  themselves.     In  many  instances,  regulated  tariffs  still  reward  companies  for  the  amount  of  power  they  supply,  and   penalise  them  financially  if  their  customers  take  less  power  from  the  grid.     In  others,  utilities  appear  unenthusiastic  about  customers  generating  their  own  power  from  micro  wind   turbines  and  rooftop  solar  panels,  or  cutting  consumption  by  investing  in  energy  efficiency  measures.     Lack  of  enthusiasm  among  electricity  suppliers  prompted  Britain's  energy  minister  to  write  to  the   country's  utility  regulator  on  Feb  10  complaining  that  "energy  suppliers  still  see  their  role  as  selling  gas   and  electricity  rather  than  having  a  different  business  model  where  the  value  proposition  is  to  save   households  energy."     SAM  INSULL'S  INSIGHTS     The  modern  electricity  business  owes  its  form  to  Samuel  Insull,  chief  of  Commonwealth  Edison,  who   built  the  first  large-­‐scale  power  distribution  company  in  the  U.S.  Midwest  more  than  a  century  ago   ("Smart  power:  climate  change,  the  smart  grid  and  the  future  of  electric  utilities,"  Peter  Fox-­‐Penner,   2010).     Insull's  crucial  insight  was  that  it  was  cheaper  to  provide  electric  service  by  combining  power  plants  and   customers  over  a  grid  rather  than  trying  to  supply  different  groups  of  users  from  separate  power   stations.     He  also  recognised  there  were  enormous  economies  of  scale  in  both  power  generation  and  distribution   that  made  them  natural  monopolies.  The  more  power  supplied  the  lower  the  unit  costs.     13     And  in  an  industry  with  some  characteristics  of  a  natural  monopoly  and  requirements  for  heavy  capital   investment,  Insull  realised  suppliers  could  benefit  from  accepting  regulation  in  exchange  for  restrictions   on  competition  and  guarantees  they  would  be  able  to  recover  their  capital  and  operating  costs  from   customers.     For  the  last  century,  employing  Insull's  model,  electric  utilities  have  generally  offered  multi-­‐part  tariffs   and  bulk  discounts  to  encourage  their  customers  to  use  more  power.  The  more  kilowatts  a  customer   uses,  the  cheaper  they  are  on  average.     Regulators,  too,  have  generally  based  rate  rises  on  the  amount  of  electricity  generated  and  transmitted   over  the  network.  Utilities  have  been  rewarded  for  investing  in  more  generation  and  transmission   capacity  to  supply  more  power  to  their  customers.     In  the  traditional  model,  there  is  no  incentive  to  help  customers  take  less  power  from  the  grid.   Customers  who  cut  their  consumption  or  generate  their  own  power  depress  revenues,  undermine  the   economies  of  scale  inherent  in  central  generation  and  distribution,  and  leave  utilities  with  under-­‐used   power  plants  and  transmission  lines.   GREENING  ELECTRICITY     To  cut  greenhouse  emissions,  policymakers  in  most  U.S.  states  and  other  countries  have  required   utilities  to  purchase  a  certain  quantity  of  their  power  from  clean  sources  like  wind,  solar,  nuclear  and   hydro.     In  addition,  utilities  have  often  been  required  or  encouraged  to  help  their  customers  make  homes  and   offices  more  energy  efficient  by  installing  more  insulation  and  weatherising.     Finally,  many  utilities  have  been  required  to  allow  customers  to  generate  their  own  power  from  rooftop   turbines  and  solar  panels,  and  even  sell  surplus  power  back  to  the  grid.     Instead  of  power  flowing  one  way  across  the  grid,  from  central  generating  stations  to  homes  and  offices,   it  increasingly  flows  in  two  directions,  with  customers  sometimes  taking,  and  sometimes  supplying,   electricity  to  the  network.     Bi-­‐directional  net  meters  record  the  time,  direction  and  amount  of  electricity  flowing  between  the   customer  and  the  network.       Customers  are  charged  only  for  the  power  they  take,  and  credited  for  power  they  supply,  according  to   the  time  of  day  and  time  of  year.     "Micro-­‐generation"  or  "distributed  generation",  as  the  system  is  known,  is  popular  among  green  groups,   customers,  politicians  and  some  utility  regulators.  Power  retailers  are  understandably  less  enthusiastic   since  it  threatens  every  aspect  of  their  traditional  business  model.     RECOVERING  GRID  COSTS     Net  metering  is  not  a  panacea.  Even  with  micro-­‐generation,  most  customers  still  want  a  connection  to   the  grid  to  even  out  their  electricity  demand  and  production.     14     On  a  sunny  or  windy  day,  a  home-­‐generator  may  want  to  sell  excess  power  back  to  the  grid.  On  a  cold,   overcast  and  still  day,  a  home  generator  may  still  need  to  take  some  power  from  the  network.     The  problem  is  how  much  to  charge  micro-­‐generators  for  the  network  services  that  they  continue  to  rely   on.     "Although  (distributed)  generation  can  reduce  a  grid's  needs  for  central  station  generation  and  other   infrastructure,  it  typically  does  not  eliminate  its  owners'  needs  for  grid  services,"  EEI  and  NRDC   explained  in  their  statement.     Grid  services  include  everything  from  basic  transmission  to  voltage  and  frequency  control  and  providing   back  up  power  when  the  sun  does  not  sunshine  and  the  wind  does  not  blow.     The  question  is  how  much  to  charge  micro-­‐generators  for  all  these  services  they  continue  to  use  even  as   they  cut  the  number  of  kilowatts  they  take  from  the  network.     In  many  cases,  early  net  metering  programmes  have  been  very  generous.  If  net  metering  was  extended   to  a  much  larger  group  of  customers,  as  policymakers  hope,  on  the  same  terms,  utilities  would  be  left   with  lots  of  under-­‐used  power  plants  and  transmission  lines  and  a  "revenue  adequacy"  problem.     While  some  power  plants  and  transmission  lines  could  be  permanently  closed,  others  would  still  be   needed  to  provide  back-­‐up  and  other  grid  services.     REDESIGNING  POWER  TARIFFS     There  is  a  risk  that  customers  who  continue  to  rely  on  the  grid  will  end  up  subsidising  micro-­‐generators   who  produce  most  of  their  own  but  still  expect  the  grid  to  be  available  as  back-­‐up.     The  same  problem  occurs  with  energy  efficiency.  Reducing  consumption  cuts  some  but  not  all  of  the   costs  of  supplying  customers.  As  less  power  is  supplied,  average  unit  costs  tend  to  rise  because  some   costs  are  basically  fixed.     In  their  declaration,  EEI  and  NRDC  agree  there  is  a  "vital  need  for  regulatory  policies  that  will  support   fair  and  adequate  cost  recovery  for  maintaining  the  evolving  grid."     From  the  moment  Thomas  Edison  opened  the  first  power  plant  at  Pearl  Street  on  Manhattan  in  1882,   cost  recovery  and  tariff  design  has  been  central  to  the  development  of  the  electricity  industry.     It  is  a  technical  subject  which  receives  far  less  media  and  public  attention  than  smart  metering  and   renewables.  But  no  issue  is  more  important.     Updating  cost  recovery  and  tariff  systems  will  be  essential  to  integrating  more  home-­‐generation  over   the  next  20  years  while  ensuring  electricity  remains  reliable  and  affordable  for  all  customers.  (Editing   by  Jason  Neely)     Stakeholders  see  a  'sea  change'  in  attitudes  over  business  model    Energy  &  Environment   Publishing      Rod  Kuckro    2/13/14     15     The  midwinter  meeting  of  the  nation's  utility  czars  ended  yesterday  with  a  surprising  kumbaya  moment   when  the  lobby  for  investor-­‐owned  electric  utilities  and  the  Natural  Resources  Defense  Council  issued  a   joint  statement  in  support  of  new  state-­‐level  rate  regimes  that  allow  continuing  expansion  of  solar   power  while  keeping  utilities  financially  whole  and  able  to  maintain  the  grid.     The  agreement  by  the  Edison  Electric  Institute  and  NRDC  reflects  a  consensus  that  seemed  to  be  jelling   in  real  time  over  the  course  of  the  National  Association  of  Regulatory  Utility  Commissioners'  five-­‐day   meeting.     In  practical  terms,  the  agreement  may  reflect  two  realities:  resignation  that  the  drive  for  cleaner  energy   technologies  is  here  to  stay,  and  that  consumers  are  in  the  lead  as  they  exploit  technologies  they  can   afford  to  put  themselves  in  more  control  of  their  energy  use.     "The  old  way  of  doing  business,  the  centralized  generator,  the  distribution  company  and  the  customer  -­‐-­‐   that's  just  not  where  the  future's  going  to  be,"  said  David  Cash,  a  commissioner  with  the  Massachusetts   Department  of  Public  Utilities,  just  one  day  before  the  EEI-­‐NRDC  agreement.     "The  utilities  and  regulators  need  to  figure  out  what's  the  business  model  that  can  make  the  utilities   economically  healthy  players  in  this  field  at  the  same  time  that  it  gives  the  consumers  all  of  the  kind  of   benefits  that  we're  going  to  get  from  all  of  these  new  technologies,"  Cash  said  in  an  interview.     At  session  after  NARUC  session,  despite  each  one's  advertised  focus  on  topics  such  as  an  integrated  grid,   energy  efficiency  or  new  business  models,  the  conversation  among  the  regulated,  the  regulators  and   stakeholders  evolved  into  an  emphasis  on  the  need  for  détente.     "Rate  design  is  where  it's  at,"  said  Rob  Caldwell,  vice  president  for  renewable  generation  development   at  Duke  Energy  Corp.  "The  key  is  to  get  a  handle  on  what  are  utilities'  fixed  costs  and  variable  costs  and   design  rates  that  reflect  fixed  revenue  and  variable  revenue,"  he  said  at  one  session.     Time-­‐varying  rates  for  customers  could  be  one  solution,  said  Janet  Besser,  vice  president  of  the  New   England  Clean  Energy  Council  and  a  former  regulator.  "We  have  to  do  the  analysis  and  know  where  the   costs  and  benefits  are,"  especially  when  it  comes  to  valuing  energy  efficiency  and  demand  response,  she   said.     "There  are  ways  that  we  can  improve  [utilities']  risk  profile  in  terms  of  the  mechanism  of  rate  recovery.   In  our  state,  we  have  trackers  [that  collect  from  ratepayers  a  charge  for  specific  utility  spending],  and   that's  one  way  to  reduce  risk,"  Cash  said.     EEI  softens  its  approach     "The  electric  power  industry's  mission  is  to  provide  safe,  reliable,  affordable  and  increasingly  clean   electricity,"  said  EEI  Executive  Vice  President  David  Owens.  "Today  utilities  are  partnering  with   customers,  regulators  and  all  stakeholders  to  transform  the  way  they  generate  and  deliver  electricity.   This  agreement  helps  chart  a  path  to  success."     It  was  just  a  year  ago,  in  a  landmark  report  on  "disruptive  challenges"  facing  the  retail  electric  business,   that  EEI  identified  the  "falling  costs  of  distributed  generation"  such  as  solar  panels  and  "political  interest   16     in  demand-­‐side  management  technologies"  such  as  energy  efficiency  as  threats  to  the  long-­‐established   utility  business  model.     Within  the  year,  to  drive  home  its  point,  EEI  was  sponsoring  television  ads  critical  of  state  net-­‐metering   programs  by  raising  the  fact  that  under  most  net-­‐metering  designs,  customers  with  rooftop  solar  panels   get  to  sell  their  surplus  electricity  back  to  the  utility,  cutting  their  electric  bills  and  as  a  result  not  paying   as  much  for  the  upkeep  of  the  grid  as  a  nonsolar  customer.     The  campaign  was  widely  criticized  for  pitting  those  who  could  afford  solar  against  the  majority  of   customers  who  cannot.       That  became  an  often-­‐repeated  argument  by  executives  who  fear  an  inexorable  decline  in  power  sales   would  erode  their  ability  to  serve  what  former  Great  Plains  Energy  CEO  Michael  Chesser  described   recently  as  the  "higher  purpose"  to  society  inherent  in  a  utility's  monopoly  franchise  to  provide  reliable   electric  service.     Time  will  tell  if  it's  really  a  'sea  change'     "It's  been  an  effort  of  months  done  in  anticipation  of  the  NARUC  meeting,"  Ralph  Cavanagh,  co-­‐director   of  NRDC's  energy  program,  said  in  an  interview.     "I  think  it  marks  a  sea  change  in  the  attitude  in  particular  of  the  leadership  of  the  utility  industry   regarding  the  promise  of  the  technology  revolution  that  energy  efficiency  and  [distributed  generation]   represents.     "It  is  a  very  welcome  expression  of  optimism  about  the  role  of  the  utility  sector  as  a  partner  in  making   this  happen,  and  that  there's  a  way  forward  that  will  work  for  everyone  involved."     Cash  agreed.  "It  does  feel  to  me  like  there  is  a  big  sea  change  happening,  and  that  sea  change  is  that   [public  utility  commissions]  and  utilities  are  realizing  this  huge  change  in  how  energy  is  delivered,  how   it's  stored,  how  it's  priced  [with]  all  of  these  new  technologies  that  allow  for  information  to  be  used  and   shared  and  pricing  signals  to  be  done  correctly,"  he  said.     The  agreement,  which  EEI  and  NRDC  describe  as  following  a  2008  joint  campaign  to  encourage   efficiency,  calls  for  state  regulators  to  "rethink  how  utility  costs  are  recovered"  and  view  retail   distribution  as  a  business  that  delivers  energy  services,  not  just  electricity.     Among  its  eight  recommendations  are  that  "customers  deserve  the  opportunity  to  interconnect   distributed  generation  to  the  grid  quickly  and  easily"  through  net-­‐metering  programs,  and  that  "utilities   deserve  assurances  that  recovery  of  their  authorized  non-­‐fuel  costs  will  not  vary  with  fluctuations"  in   electricity  use.     "Obviously,  this  is  not  a  mission  accomplished  moment  -­‐-­‐  there's  a  great  deal  to  do  at  the  state  level  to   realize  this  promise,"  Cavanagh  said.  "But  I  emerged  from  this  process  heartened  at  the  likelihood  that   we'll  find  a  way  forward  together.  It  has  to  happen  on  a  state-­‐by-­‐state  basis,  a  lot  more  people  have  to   be  involved."     17     US  Should  Heed  Renewable  Integration  Lessons  from  Europe  or  Face  Consequences,  Says   NARUC  Panelist    Renewable  Energy  World    Corina  Rivera-­‐Linares    2/13/14   http://www.renewableenergyworld.com/rea/news/article/2014/02/us-­‐should-­‐heed-­‐renewable-­‐ integration-­‐lessons-­‐from-­‐europe-­‐or-­‐face-­‐consequences-­‐says-­‐naruc     WASHINGTON,  D.C.  -­‐-­‐  In  integrating  renewable  energy  to  the  electric  grid,  the  United  States  has  a   unique  opportunity  to  assess  lessons  learned  in  Europe  and  not  replicate  the  disequilibrium  that  has   occurred  overseas  to  consumers,  power  producers  and  capital  markets,  according  to  Jeffrey  Altman,   senior  advisor,  Finadvice  GmbH.     “A  new  transparent,  ubiquitous,  reliable  regulatory  framework  needs  to  be  established  in  order  to   correctly  build  and  support  the  nation’s  developing  renewable  power  portfolio,  which  ensures  a  long-­‐ term  responsibility  for  the  whole  power  system,  as  well  as  the  appropriate  pricing  to  the  American   consumer,”  he  said  during  a  Feb.  10  panel  as  part  of  the  National  Association  of  Regulatory  Utility   Commissioners  (NARUC)  Winter  Committee  Meetings  in  Washington,  D.C.  “The  net  impact  to  the  U.S.   economy  and  its  future  strategic  competitiveness  can  be  significant.  The  U.S.,  therefore,  needs  to   appropriately  restructure  its  regulatory  framework  and  prioritize  this  effort  now,  or  face  similar   challenges  as  Europe  in  the  future.”   Altman  noted  that  there  are  several  benefits  of  having  high  penetration  levels  of  renewable  energy  on   the  grid,  including  the  diversification  of  the  power  portfolio  and  lower  wholesale  prices.   Speaking  of  the  European  experience,  he  noted  that  due  to  massively  subsidized  feed-­‐in  tariffs,  new   additional  capacity  is  driving  down  wholesale  prices  of  power  as  renewables  with  lower  marginal   production  costs  than  thermal  plants  get  dispatched  first.   Other  benefits  include  reductions  of  greenhouse  gas  emissions,  he  said,  noting  that  the  European  Union   (EU)  has  set  a  target  of  a  20  percent  reduction  of  greenhouse  gases  from  1990  levels,  with  a  20  percent   renewable  target  and  a  20  percent  increase  in  energy  efficiency  for  2020.  So  far,  he  said,  the  EU  is  on   target  with  most  of  its  members.   Also  a  benefit  is  energy  independence,  which  is  critical  for  every  country,  Altman  said.  Employment   gains,  the  development  of  more  efficient  renewable  technologies  and  greater  efficiency  in  scale  and   scope  are  also  benefits  stemming  from  higher  levels  of  renewable  energy,  he  said.   Unintended  Consequences  in  Europe   Despite  the  benefits,  there  have  been  unintended  consequences  in  Europe  as  it  pertains  to  advancing   renewable  energy,  including  a  misunderstanding  of  required  subsidies  and  appropriate  regulation,  he   said,  adding  that  European  regulators  grossly  underestimated  the  cost  of  subsidies  and  the  necessary   build-­‐out  requirements.   Some  estimate  that  Germany’s  feed-­‐in  tariff  subsidy  program,  for  instance,  could  exceed  $1.3bn  by  the   time  it  expires.   Many  European  regulatory  regimes  were  inappropriately  structured  and  there  have  been  efforts  to   correct  those  by,  for  instance,  initiating  retroactive  taxes  or  new  regimes  that  resulted  in  significant   value  destruction  to  various  renewable  companies.   “This  continued  regulatory  uncertainty  across  Europe  is  increasing  the  cost  of  capital  for  European   renewable  companies,  which  Fitch,  the  rating  agency,  recently  highlighted  as  the  most  likely  sector  in   the  European  energy  markets  to  receive  a  downgrade  in  2014,”  Altman  said.   18     The  enormous  amount  of  subsidies  and  the  speed  of  build-­‐up  have  created  disruption  to  the  power   markets,  he  said,  adding,  “As  the  EU  is  a  liberalized  market,  government  actions  regarding  subsidies  are   currently  being  allowed  by  international  law  in  favor  of  the  perceived  requirements  of  the  consumer  and   the  environment.”   For  instance,  wholesale  prices  in  Germany  have  fallen  from  €90/MW  to  €95/MW  in  2008  to  €37/MW  in   2013.   Altman  also  noted  that  the  EU  will  be  required  to  pay  subsidies  for  the  build-­‐out  and  enhancements  of   power  networks  to  manage  the  dynamic  flows.  Germany,  he  said,  is  planning  to  spend  some  €40bn,  or   around  US$60bn,  to  reinforce  the  grid  from  where  it  was  in  2012  to  where  it  will  be  in  2023.   “You’re  effectively  taking  all  of  the  power  …  from  the  north  and  bringing  it  down  to  the  south,”  he  said.   “[That  is]  a  huge  effort  and  no  one  was  ever  considering  those  costs  early  on.”   In  addition  to  that,  the  German  government  is  also  now  —  as  others  are  starting  to  do  —  looking  at   ensuring  capacity  payments  for  thermal  power  stations  that  are  being  closed  down  to  ensure  the   reliability  of  the  grid  and  prevent  blackouts  and  brownouts,  he  said.   Another  challenge  is  that  many  European  utilities  underestimated  the  growth  of  renewables  as  well  as   the  impact  to  wholesale  prices  in  the  entire  system,  leading  to  the  continued  build-­‐out  of  thermal  plants   over  the  last  decade,  many  of  which  were  made  obsolete,  particularly  with  respect  to  natural  gas-­‐fired   plants,  by  the  end  of  the  decade.   “As  a  result,  the  utilities  had  to  shore  up  their  balance  sheets  by  undertaking  large  divestitures  of  some   of  their  holdings,  as  well  as  reducing  their  operating  costs,”  Altman  said.   Europe’s  top  20  utilities  that  were  worth  around  €1tr  in  2008  are  now  less  than  half  that  amount  due  to   the  global  financial  crisis  and  other  factors,  including  those  involving  renewable  energy  development,  he   said.   Another  important  matter  that  has  occurred  is  that  prices  to  energy  users  have  increased  significantly,   as  has  the  backlash  against  energy  companies,  he  said.   In  Germany,  household  prices  have  more  than  doubled  from  18  cents/kWh  in  2000  to  more  than  37   cents/kWh.  In  the  United  Kingdom,  there  has  been  a  call  to  freeze  prices  for  up  to  20  months,  Altman   added.   Well-­‐meaning  European  governments  and  regulators  embarked  upon  an  effort  to  reduce  carbon   emissions  and  “unintentional  consequences  resulted  from  those  policies  that  were  not  ultimately  fully   vetted  by  industry  [including]  renewable  companies  and  utilities  and  other  stakeholders,”  he  said.  “The   results  of  these  policies  have  required  enormous  subsidies,  which  have  created  disequilibrium  and  value   destruction  to  both  renewable  companies  and  utilities  via  regulatory  interventions.”   It  is  now  envisioned  that  further  subsidies  will  be  required  for  emission  targets,  the  support  of  thermal   plants  and  storage,  via  capacity  payments  and  a  build-­‐out  of  grids.   Accordingly,  Altman  added,  those  policies,  combined  with  large  subsidies  “are  destroying  what  was   essentially  a  free  market  and,  as  such,  the  influence  of  government  in  the  power  sector  will  ultimately   have  no  real  market  correction  mechanisms  as  European  governments  capriciously  determine  the  fuel   mix,  technology  choice  and  capacity  price  levels  with  detrimental  effect  to  the  efficiency,  investment   and,  most  importantly,  prices  to  consumers.”   19     Lessons  Learned  as  the  U.S.  Moves  Forward   In  the  U.S.,  Altman  said,  “now  is  the  time  to  fully  assess  the  implications  of  transitioning  to  a  partial   renewable  portfolio  and  structure  the  appropriate  regulation.”   The  current  U.S.  net  metering  and  regulation,  which  has  allowed  for  renewables  to  come  on  the  grid,   does  not  take  into  consideration  the  future  requirements  of  grid  enhancements  as  well  as  what  will  be   required  to  maintain  a  reliable  power  system,  he  said.   “There  needs  to  be  a  well-­‐coordinated  assessment  between  federal  and  state  regulators,  regulated  and   non-­‐regulated  power  producers,  renewable  companies,  consumers  and  other  important  stakeholders  to   develop  ubiquitous  regulation,”  he  said.  “Otherwise,  the  U.S.  will  ultimately  face  an  analogous  situation   relative  to  Europe  with  balkanized  energy  markets.”   On  whether  regulators  should  wait  for  there  to  be  overcapacity  and  strains  on  the  systems  to  set  new   regulations,  he  said,  “I  suggest  what  we  have  learned  from  Europe,  this  would  indeed  be  imprudent.”   Regulators  should  consider  creating  a  new  framework  whereby  a  structure  be  agreed  upon  as  to  how   much  capacity  will  be  allowed  in  each  state/region  over  a  20-­‐year  period,  looking  into  five-­‐year   increments  with  review  every  two  years,  he  said.  In  parallel,  there  should  also  be  an  agreement  as  to   how  much  thermal  capacity  will  be  retired  during  that  time,  whereby,  collectively,  an  assessment  will  be   made  with  respect  to  the  mix  of  power  production,  the  network  upgrade  costs,  the  overall  reliability  of   the  network  and  the  ultimate  price  to  consumers,  he  said.   Special  attention  should  be  paid  to  require  flexibility  in  storage.  Upon  this  analysis,  he  added,  all  new   generation  coming  online  should  be  bid  at  an  auction  to  meet  the  lowest  economic  costs,  highest   reliability  standards,  as  well  as  environmental  standards,  Altman  said.   This  article  was  originally  published  on  GenerationHub  and  was  republished  with  permission.   EEI,  Wall  Street  Talks  Include  Policy,  Environment    Fierce  Energy      Barbara  Vergetis  Lundin     2/14/14   http://www.fierceenergy.com/story/eei-­‐wall-­‐street-­‐talks-­‐include-­‐policy-­‐environment/2014-­‐02-­‐14       In  2014,  policy,  consumers  and  the  environment  are  on  the  top  of  the  Edison  Electric  Institute's  (EEI)  list   of  key  issues,  which  EEI  executives  talked  about  in  a  recent  briefing  with  Wall  Street  analysts,  executives,   bankers  and  investors.     Just  days  prior,  EEI  and  the  Natural  Resources  Defense  Council  (NRDC)  joined  forces  to  advance  utility   policies  that  affect  the  electric  power  grid  for  the  benefit  of  all  electricity  customers  and  the   environment,  encouraging  state  utility  regulators  to  implement  policies  that  balance  the  promotion  of   innovation  while  supporting  fair  and  adequate  cost  recovery  for  maintaining  the  evolving  grid.  The  two   groups  will  urge  state  utility  regulators  to  adopt  a  number  of  policies,  such  as  employing  new  rate   designs  to  ensure  utilities  remain  financially  whole  when  they  help  customers  adopt  distributed   generation  technologies  and  use  energy  more  efficiently  or  assuring  customers  that  costs  will  not  be   shifted  unreasonably  to  them  from  other  customers.     In  the  briefing,  EEI  Senior  Vice  President  Brian  Wolff  outlined  the  key  policy  issues  the  industry  will  face   in  2014.  At  the  state  level,  one  of  the  most  critical  policy  debates  is  "the  expanding  role  that  distributed   generation  (DG)  -­‐-­‐  and  the  net  metering  policies  that  support  it  -­‐-­‐  is  having  on  the  electric  grid."     20     Wolff  emphasized  that  most  rooftop  solar  customers  rely  on  the  grid  around  the  clock.  However,   because  of  the  way  that  state  net  metering  programs  are  structured,  rooftop  solar  customers  pay  less   for  the  costs  of  the  grid  than  they  did  before  they  installed  their  DG  systems,  despite  their  continued   reliance  on  the  grid  and  its  services.     "It's  critical  -­‐-­‐  and  fair  -­‐-­‐  that  all  electricity  consumers  who  use  the  electric  power  grid  share  equitably  in   the  costs  of  maintaining  it  and  keeping  it  operating  reliably  at  all  times.  The  cost  shifting  caused  by   current  net  metering  policies  must  be  eliminated,"  Wolff  said.     Transforming  the  grid  requires  a  significant  investment.  In  2013,  the  industry  was  projected  to  spend  a   record-­‐setting  $95.2  billion  in  capital  expenditures.     EEI  continues  to  advocate  that  the  Federal  Energy  Regulatory  Commission  "provide  compensatory   returns  on  equity  that  reflect  the  risks  of  development  and  the  long  asset  lives  of  transmission  facilities,"   according  to  EEI  Vice  President  of  Energy  Supply  and  Finance  Richard  McMahon.     In  the  energy  supply  area,  McMahon  said  that  "as  energy  markets  change,  and  with  them,  our  industry's   generation  fleet,  preserving  fuel  diversity  and  flexibility  remains  at  the  forefront  of  the  industry's   priorities."     On  the  environmental  front,  EEI  Vice  President  of  Environment  Quin  Shea  outlined  the  industry's   regulatory  challenges  for  2014  and  beyond,  stressing  that  the  "electric  power  sector  has  made   impressive  reductions  in  its  air  emissions  over  the  past  20  years,  during  a  time  when  electricity  use  grew   by  almost  40  percent."  He  added  that  the  industry  continues  to  "support  achieving  the  nation's   environmental  goals  in  a  manner  that  minimizes  costs  to  customers  and  is  consistent  with  the  industry's   investment  in,  and  transition  to,  an  increasingly  cleaner,  safer,  and  more  reliable  generation  fleet  and   enhanced  electric  grid."     Among  the  pending  Environmental  Protection  Agency  (EPA)  regulations  affecting  the  industry  is  the   section  316(b)  rule  under  the  Clean  Water  Act  (for  cooling  water  intake  structures),  which  Shea  calls   "one  of  the  most  significant  rulemakings  facing  the  industry  this  year."     The  rule  would  apply  to  all  existing  steam-­‐electric  facilities  and  could  cause  a  $100  billion  cost  impact  if   all  affected  units  were  required  to  retrofit  with  cooling  towers,  which  could  threaten  reliability  and  lead   to  premature  plant  closures.     With  regard  to  the  proposed  greenhouse  gas  New  Source  Performance  Standards  (NSPS)  for  existing   sources,  Shea  said,  "EPA  should  provide  states  with  maximum  flexibility  when  creating  compliance  plans   and  that  there  should  be  credit  given  for  a  wide  range  of  actions  taken  to  date  that  have  resulted  in  GHG   emission  reductions."     This  year  will  be  critical  for  environmental  regulations.     "While  we  do  not  fully  know  what  the  cumulative  effects  of  all  these  regulations  will  be  on  the  electric   power  sector,"  Shea  said,  "it  is  certain  that  they  will  have  a  significant  economic  impact  on  our  industry   and  our  future  generation  fleet,  while  also  impacting  our  mission  to  keep  electricity  affordable  and   reliable  for  all  customers."     21     EEI,  NRDC  Launch  Common  Agenda  for  Structural  and  Regulatory  Reform    Electricity  Policy     Ken  Maize    2/14/14   http://www.electricitypolicy.com/news/6508-­‐eei,-­‐nrdc-­‐launch-­‐common-­‐agenda-­‐for-­‐structural-­‐and-­‐ regulatory-­‐reform       The  lobbying  group  for  the  nation’s  investor-­‐owned  electric  utilities  and  one  of  the  country’s  leading   environmental  groups  have  agreed  to  work  together  on  “ways  to  advance  support  for  utility  policies  that   enhance  the  electric  power  grid  for  the  benefit  of  all  electricity  customers  and  the  environment.”  The   Edison  Electric  Institute  and  the  Natural  Resources  Defense  Council  unveiled  their  accord  at  the  National   Association  of  Regulatory  Utility  Commissioners’  meeting  in  Washington  on  Wednesday.       EEI”s  executive  vice  president  David  Owens  and  NRDC’s  Ralph  Cavanagh  touted  their  kumbaya  accord  as   calling  on  “state  utility  regulators  to  adopt  a  number  of  policies  that  range  from  employing  new  rate   designs  to  ensure  utilities  remain  financially  whole  when  they  help  customers  adopt  distributed   generation  technologies  and  use  energy  more  efficiently  to  assuring  customers  that  costs  will  not  be   shifted  unreasonably  to  them  from  other  customers.”       Both  Owens  and  Cavanagh  are  veterans  of  the  long  and  sometimes  collaborative,  sometimes   contentious,  relationship  between  electric  utilities  and  environmentalists.  At  the  NARUC  roll-­‐out  of  the   agreement,  Owens  said,  “Today,  utilities  are  partnering  with  customers,  regulators  and  all  stakeholders   to  transform  the  way  they  generate  and  deliver  electricity.  This  agreement  helps  chart  a  path  to   success.”  Cavanagh,  who  has  been  at  the  forefront  of  electric  policy  as  long  as  Owens,  said,  “This  path-­‐ breaking  agreement  steers  us  toward  new  and  innovative  ways  to  increase  and  speed  the  development   of  clean  energy  resources.”       The  recommendations  of  the  joint  statement  –  aimed  squarely  at  the  state  regulators  at  the  NARUC   Washington  meeting  –  make  eight  points,  mostly  related  to  issues  involving  decoupling  electricity  sales   and  revenues,  supporting  net  metering  for  customers  with  their  own  generation,  rewarding  energy   efficiency,  and  boosting  deployment  of  “smart  grid”  technologies.       The  crux  of  the  EEI/NRDC  agreement:       —Electricity  distribution  is  not  “a  commodity  business  dependent  on  growth  in  electricity  usage  to  keep   its  owners  financially  whole.”  This  is  a  clear  pitch  for  decoupling  of  sales  and  rates.       —If  regulators  agree  to  decoupling,  “they  should  provide  for  reasonable  and  predictable  annual   adjustments  in  utilities”  authorized  non-­‐fuel  revenue  requirements.”       —Net  metering  programs  for  distributed  generation  such  as  rooftop  solar,  are  positive  for  society.  But   that  does  not  “reduce  a  grid’s  need  for  central  station  generation  and  other  infrastructure,”  and   “typically  does  not  eliminate”  the  owner  of  the  generating  assets  need  for  “grid  services.  For  example,   solar  generation  at  a  residence  typically  does  not  align  perfectly  with  the  occupants”  energy  use,   requiring  some  use  of  the  grid  as  the  equivalent  of  a  battery.”       —Rate  designs  should  “reward  customers  for  using  electricity  more  efficiently.  Examples  include,  but   are  not  limited  to,  real-­‐time  pricing  and  variable  demand  charges  that  take  advantage  of  digital  meter   capabilities  where  available.”  This  is  based  on  the  principle  that  utilities  “deserve  assurances  that   recover  of  their  authorized  non-­‐fuel  costs  will  not  vary  with  fluctuations  in  electricity  use.”   22         —Tying  IOU  earnings  to  “benefits  delivered  to  their  customers  by  cost-­‐effective  initiatives  to  improve   energy  efficiency,  integrate  clean  energy  generation,  and  improve  grids”  should  be  part  of  regulatory   practice.       —The  parties  will  work  “together  to  ensure  that  energy  efficiency  services  reach  underserved   populations,  including  the  increased  deployment  of  utility  programs  focused  on  affordable  multi-­‐family   housing.”       —EEI  and  NRDC  “reaffirm  their  goal”  of  advancing  “cost-­‐effective  energy  efficiency  opportunities   through  an  integrated  combination  of  financial  incentives  to  customers  and  minimum  standards   governing  the  performance  of  buildings  and  equipment….”       —State  regulators  should,  “when  presented  with  a  reasonable  business  case  by  utilities,”  support  utility   cost  recovery  of  “significantly  enhanced  investment”  in  smart  meters  and  smart  grid  technologies.     Utilities  And  Greenies  Try  To  Cool  Off  Grid  Disputes    Forbes    Ken  Silverstein    2/20/14   http://www.forbes.com/sites/kensilverstein/2014/02/20/utilities-­‐and-­‐greenies-­‐try-­‐to-­‐cool-­‐off-­‐grid-­‐ disputes/     The  heated  discussion  between  utilities  that  maintain  the  wires  and  rooftop  solar  users  that  have   “detached”  from  the  grid  is  sweeping  the  nation.  But  a  cooling  period  may  be  in  the  offing  now  that  the   two  sides  have  agreed  that  utility  services  aren’t  free  and  that  those  costs  must  be  “fairly”  shared.   Both  the  Edison  Edison  Electric  Institute  and  the  Natural  Resources  Defense  Council  realize  that  if  the   grid  is  not  modernized  and  expanded  then  it  would  jeopardize  economic  growth  and  renewable  energy   expansion.  That’s  why  they  have  issued  a  position  paper  that  says  distributed  generation  owners  —   erstwhile  rooftop  solar  customers  —  must  pay  their  utilities  a  reasonable  rate  for  the  services  that  they   use.  Likewise,  homeowners  must  get  a  fair  price  for  the  electric  services  they  sell  back  to  their  utilities.   “The  electric  power  industry’s  mission  is  to  provide  safe,  reliable,  affordable,  and  increasingly  clean   electricity.  Today  utilities  are  partnering  with  customers,  regulators  and  all  stakeholders  to  transform   the  way  they  generate  and  deliver  electricity.  This  agreement  helps  chart  a  path  to  success,”  says  David   Owens,  executive  vice  president  for  the  institute  that  represents  investor-­‐owned  utilities.   With  the  demand  for  energy  expected  to  rise  in  the  coming  years,  the  grid  would  have  to  grow  along   with  it.  But  if  increasing  numbers  of  people  “unplug”  from  their  local  utilities,  then  the  cost  of  that   expansion  would  fall  on  a  fewer  number  of  customers.  That  would  harm  electric  reliability  and  it  would   certainly  hurt  those  wind  and  solar  developers  that  use  the  transmission  network.   But  it’s  not  so  simple:  Distributed  solar  customers  still  use  the  wires  —  either  to  get  electricity  on  cloudy   days  or  to  send  their  excess  power  to  utilities,  which  can  then  avoid  buying  it  on  expensive  spot   markets.   The  two  sides  have  been  battling  over  cost  allocation.  Rooftop  solar  customers  want  to  pay  as  little  as   possible  to  remain  minimally  connected  to  the  grid  while  they  want  to  receive  the  full  retail  rate  for  the   power  that  they  sell  back  to  utilities.  Utilities,  meanwhile,  want  more  money  from  homeowners  to   maintain  the  networks  and  they  only  want  to  pay  homeowners  the  wholesale  cost  of  the  power  they   send  back  to  them  through  those  same  wires.   23     The  battle  is  ongoing  in  California  and  Arizona  while  it  is  peaking  now  in  Colorado.  It  then  heads  to  such   states  as  Texas,  Louisiana  and  Vermont.   “Installations  are  up  34  percent  in  Colorado  in  2013,”  says  Mark  Stutz,  spokesman  for  Xcel  Energy  in   Colorado.  “If  you  look  at  the  rooftop  benefits,  it  does  offset  some  of  our  generation.  But  it  does  not   cover  the  full  distribution  and  transmission  costs,  which  our  customers  pay  for.”   State  utility  commissions  understand  implicitly  the  issue  and  what  is  at  stake.  That’s  why  the  Edison   Electric  Institute’s  and  the  Natural  Resources  Defense  Council’s  proposal  is  crucial  here.  Much  of  the   substance  of  their  joint  statement  concerns  the  “decoupling”  of  retail  sales  from  a  utility’s  financial   performance.  Instead,  the  relationship  should  focus  on  meeting  customers’  energy  service  needs.   The  idea  is  to  separate  utility  rates  from  their  sales  volume.  That  allows  utilities  to  promote  energy   efficiency  while  still  recouping  their  allowable  expenses.  Under  traditional  regulatory  structures,  utility   earnings  are  tied  to  the  volume  of  electricity  and  natural  gas  that  customers  use.  So,  even  a  small   reduction  in  consumption  can  make  a  large  cut  into  a  utility’s  profitability.  This  presents  a  strong   financial  disincentive  for  those  companies  to  push  energy  efficiency.   Several  electric  and  natural  gas  utilities  are  working  with  their  state  commissioners  to  reform  the  way   their  rates  are  set  up.  The  key  to  success,  supporters  say,  is  for  regulators  to  authorize  the  recovery  of   fixed  costs  regardless  of  sales.   The  more  energy-­‐saving  projects  that  are  executed,  the  greater  impact  it  will  have  on  demand.  Reduced   consumption,  in  turn,  should  lessen  the  need  to  construct  an  ever-­‐expanding  infrastructure.  The  savings   could  be  passed  through  to  both  customers  and  shareholders.   “This  path-­‐breaking  agreement  steers  us  toward  new  and  innovative  ways  to  increase  and  speed  the   deployment  of  clean  energy  resources,”  says  Ralph  Cavanagh,  co-­‐director  of  NRDC’s  energy  program.   “NRDC  has  long  advocated  for  the  increased  integration  of  energy  efficiency  and  renewable  energy  into   the  nation’s  electric  grid.”   Grid  expansion  and  onsite  generation  are  inherently  in  conflict.  But  the  reality  is  that  both  technologies   are  vital  to  the  national  economic  and  environmental  aspirations.  The  Edison  Electric  Institute  and  the   Natural  Resources  Defense  Council  understand  this.  Now  it  is  a  function  of  a  getting  others  to  recognize   the  importance  of  both  ideas,  especially  rooftop  solar  users.   Solar  Industry,  Utilities  Seek  Common  Ground    National  Journal    Clare  Foran    2/21/14   http://www.nationaljournal.com/daily/solar-­‐industry-­‐utilities-­‐seek-­‐common-­‐ground-­‐20140220     A  divide  within  the  solar  industry  over  whether  utilities  are  an  ally  or  an  adversary  could  be  a  stumbling   block  in  emerging  efforts  to  overhaul  rate  structures  for  customers  who  provide  some  of  their  own   electricity.   With  rooftop  solar  panels  popping  up  across  the  country  at  a  record  pace,  rate  issues  have  taken  center   stage  in  high-­‐profile  regulatory  cases  in  Arizona,  California,  and  other  states  over  the  past  year.  The   issues  are  nowhere  near  settled,  but  certain  segments  of  the  solar  industry  and  some  of  its  backers  say   there  should  be  less  squabbling  and  more  cooperating  between  clean-­‐energy  providers  and  big  utilities.   There  is  even  a  new  effort  by  two  major  organizations  often  at  odds  with  each  other  to  open  a  dialogue   on  the  issue.   24     Last  week,  the  Edison  Electric  Institute,  a  trade  association  representing  investor-­‐owned  electric   companies,  and  the  Natural  Resources  Defense  Council,  one  of  the  nation's  largest  environmental   groups,  released  a  joint  statement  in  support  of  policy  changes  to  help  put  more  clean  energy  on  the   grid.   "What  we're  trying  to  do  now  is  start  a  conversation  between  utility  and  solar  providers  so  that  we  can   equitably  solve  the  cost  of  using  the  grid,"  said  Ralph  Cavanagh,  codirector  of  NRDC's  energy  program.   When  it  comes  to  the  substance  of  that  conversation,  however,  the  solar  industry  is  split.  A  major   reason  for  that  is  disagreement  within  the  industry  over  whether  utilities  are  friends  or  foes.   "The  solar  industry  is  very  diverse,  and  when  you  look  at  the  various  interests  at  play,  they  don't   necessarily  align,"  said  Julia  Hamm,  president  and  CEO  of  the  Solar  Electric  Power  Association,  which   counts  both  solar  companies  and  utilities  among  its  members.  "But  a  growing  number  of  voices  in  the   industry  are  willing  to  sit  down  with  utilities  and  talk  about  finding  a  solution  that  benefits  everyone."   One  segment  of  the  small  but  growing  solar  industry  has  little  trust  in  power-­‐company  giants.   "Utilities  are  constantly  trying  to  change  the  rules  in  a  way  that  would  hurt  solar,"  said  Bryan  Miller,   president  of  the  Alliance  for  Solar  Choice,  an  advocacy  group  for  rooftop  solar  providers.  "We've  worked   to  start  up  negotiations,  and  in  some  cases  utilities  have  been  open  to  discussion,  but  in  many  situations   what  we're  seeing  is  that  they  insist  on  nothing  short  of  pushing  policies  that  would  kill  rooftop  solar."   Other  members  of  the  solar  supply  chain  see  things  differently.  "A  large  segment  of  the  solar  industry   has  an  outstanding  relationship  with  the  utilities,"  said  Jim  Hughes,  CEO  of  First  Solar,  a  solar-­‐panel   manufacturer  and  services  provider.  "We  work  very  closely  with  utility  providers—they're  some  of  our   largest  customers."   At  the  heart  of  the  disputes  are  rate  structures  for  customers  with  solar  panels.   Solar  users  in  most  states  can  sell  excess  power  back  to  the  grid—a  policy  that  rooftop  solar  companies   say  is  sound.  But  utilities  argue  that  the  flood  of  electricity  has  strained  the  system,  and  they  want   residential  solar  customers  to  pay  extra  as  a  result.   This  divide  could  become  a  stumbling  block  in  efforts  to  broker  consensus  over  rate  structures.   "We're  not  all  on  the  same  page  right  now,  and  that's  only  natural  because  we're  a  young  industry,"  said   Tom  Werner,  CEO  of  SunPower,  a  solar-­‐panel  designer  and  manufacturer  and  provider  of  both  utility-­‐ scale  and  residential  solar.  "But  energy  is  a  policy-­‐driven  market,  so  a  fragmented  approach  won't  work   in  the  big  picture."   The  road  to  regulatory  change  will  undoubtedly  be  rocky.  Despite  the  challenge,  industry  backers  remain   optimistic  that  solar  can  find  its  way.   "There  is  common  ground  [between  utilities  and  the  solar  industry],  and  that's  to  provide  energy  and   consumer  choice.  As  long  as  we  have  a  true  north,  we'll  get  there,"  Werner  said.   Give  solar  energy  a  fair  chance  in  Utah    Salt  Lake  Tribune    Op-­‐ed:  By  Barry  Goldwater  Jr.     2/22/14   http://m.sltrib.com/sltrib/mobile3/57579507-­‐219/solar-­‐energy-­‐choice-­‐utah.html.csp     25     The  utility  monopoly  assault  on  solar  energy  is  spreading  from  state  to  state,  and  Utah  appears  to  be   next.  On  Feb.  1,  The  Salt  Lake  Tribune  published  an  editorial,  "Rates  should  be  fair,  and  green."     The  arguments  for  a  tax  on  solar  energy  sound  very  much  like  what  utility  monopoly  Arizona  Public   Service  (APS)  is  saying  in  Arizona.   My  name  is  Barry  Goldwater  Jr.  and  I  am  Co-­‐Chairman  of  TUSK,  which  stands  for  Tell  Utilities  Solar  won’t   be  Killed.  Just  as  my  father  stood  for  conservative  values  such  as  choice  and  free  markets,  I  stand  for   energy  choice  and  energy  independence.  We  fought  APS’  attempts  to  kill  solar  when  the  utility   proposed  a  $50-­‐$100  a  month  solar  tax.  Instead,  the  utility  got  a  $5  a  month  tax  imposed  on  new   rooftop  solar  customers.  Despite  our  efforts,  the  tax  has  already  led  to  noticeable  reductions  in  rooftop   solar  installations  in  my  state.  Indeed,  they  have  been  cut  in  half.  APS  used  government  intervention  to   harm  a  competitor.  That’s  bad  for  the  economy  and  it’s  certainly  not  the  conservative  way.   Conservatives  stand  for  choice,  whether  it’s  school  choice,  health  care  choice,  or  energy  choice.   Conservatives  believe  in  energy  independence  and  solar  plays  an  important  part  in  achieving  that  goal.   Make  no  mistake,  Rocky  Mountain  Power  is  taking  a  page  from  APS’  playbook  in  seeking  a  $4.25  tax  on   rooftop  solar  users.  The  utility  knows  that  such  a  tax  would  slow  and  damage  the  emerging  rooftop  solar   industry  in  Utah.  What’s  more,  from  the  editorial,  it  sounds  like  Rocky  Mountain  Power  is  also  working   on  a  change  to  Utah  policy  that  would  guarantee  that  their  tax  request  is  granted,  without  sound   analysis  and  in  spite  of  what  the  evidence  may  show.   Conservatives  support  solar  power  because  it  encourages  the  free  market  over  monopolies,  because  it   creates  jobs,  and  because  an  America  less  dependent  on  fossil  fuels  is  a  stronger  America.  Those   arguments  are  not  lost  on  GOP  voters  in  Arizona.  In  an  August  2013  poll,  84  percent  of  Republican   voters  in  the  Phoenix  area  said  they  would  be  less  likely  to  vote  for  a  candidate  who  voted  to  end  the   program.  Another  2013  poll  conducted  in  all  Western  States  found  that  solar  and  other  renewables   ranked  first  in  most  states  when  voters  were  asked  what  two  energy  sources  they  wanted  to  see  more   money  spent  on.   The  potential  for  solar  energy  in  Utah  is  enormous.  Despite  an  abundance  of  sunshine,  Utah  only   generates  .075  percent  of  its  energy  with  solar  power.  Allowing  private  enterprise  and  the  rooftop  solar   industry  to  thrive  could  drastically  change  that  number.  It  would  also  give  energy  customers  in  Utah  a   choice  as  to  how  they  get  their  electricity.  Rocky  Mountain  Power  knows  this.  That’s  why  they  are  acting   pro-­‐actively  to  kill  off  a  competitor.  Let’s  hope  regulators  and  policy  makers  in  Utah  know  better.   Barry  Goldwater  Jr.  is  a  former  congressman  and  chairman  of  TUSK  (Tell  Utilities  Solar  won’t  be  Killed).       Yergin:  Germany  Must  Focus  on  Cost-­‐Effective  Renewable  Energy    The  Wall  Street  Journal     Jan  Hromadko    2/26/14   http://online.wsj.com/news/articles/SB10001424052702304071004579407082647574004     FRANKFURT—Germany  needs  to  focus  on  cost-­‐effective  renewable  energy  sources  and  start  drilling  for   shale  gas  to  avoid  sapping  its  wealth  while  cutting  carbon  emissions,  said  energy  expert  Daniel  Yergin.     26     Europe's  largest  economy  is  pursuing  one  of  the  world's  most  ambitious  climate-­‐protection  strategies,   aiming  by  midcentury  to  nearly  eliminate  greenhouse  gas  emissions.  To  achieve  this  it  plans  to  drop  all   nuclear  and  most  fossil-­‐fueled  power  generation  in  favor  of  alternatives  like  wind  and  solar  power.   But  the  shift,  financed  through  surcharges  on  power  bills,  has  sent  electricity  prices  soaring.  Companies   say  they  face  a  competitive  disadvantage  in  Germany  compared  with  the  U.S.  and  other  locations.   Mr.  Yergin,  an  author  on  energy  issues  and  vice  chairman  at  consulting  firm  IHS,  said  in  an  interview  that   Germany  should  scale  back  its  plans  for  expensive  renewables  and  complement  the  drive  with  more   domestic  natural  gas  production.   IHS  on  Thursday  published  an  analysis  of  Germany's  plans,  which  the  government  of  Chancellor  Angela   Merkel  is  now  revising.  IHS  prepared  the  report  for  clients  including  Germany's  chemical  industry   association  and  companies  including  Exxon  Mobil  Corp.  and  BASF  SE.  IHS  provided  an  advance  copy  to   The  Wall  Street  Journal.     A  spokesman  for  Germany's  energy  ministry  declined  to  comment  on  the  analysis  Wednesday  because  it   had  not  yet  been  published.   Profoundly  revamping  the  German  energy  transition  and  developing  shale  gas  could  boost  Germany's   gross  domestic  product  by  nearly  €140  billion  through  2040,  or  3.4%,  and  create  around  1  million  new   jobs,  Mr.  Yergin  said.   Germany's  current  plans  will  cost  it  €185  billion  over  the  next  two  decades,  IHS  concluded.   Without  revisions,  "Germany  will  lose  industrial  capacity  because  investment  moves  offshore,  which   would  have  a  significant  impact  on  economic  growth,  employment  and  government  revenues,"  Mr.   Yergin  said.   Germany's  shift  comes  as  the  rapid  development  of  shale  gas  in  North  America  has  made  the  U.S.  much   more  attractive  for  manufacturing  and  exporting.  Average  industrial  electricity  prices  in  Germany  have   risen  approximately  60%  since  2007,  while  price  in  the  U.S.  and  China  have  increased  less  than  10%,  IHS   calculated.   Ms.  Merkel's  new  government  has  already  pledged  to  slow  the  expansion  of  renewable  energies  to   contain  costs  and  protect  German  business  interests  and  jobs.  Energy  Minister  Sigmar  Gabriel  said  last   month  the  German  economy  cannot  handle  more  energy-­‐price  increases.   Mr.  Yergin  said  the  statements  shows  the  government  appreciates  new  realities  in  global  energy   markets.  "But  so  far,  it  has  been  a  shift  in  attitude  and  only  a  limited  change  of  policies,"  he  said.   One  shortcoming  he  cited  in  Germany's  reform  proposals  is  what  he  called  excessive  focus  on  offshore   wind  energy.  Placing  wind  turbines  far  at  sea  is  appealing  because  it  provides  more  constant  power  than   most  other  green  energy  sources.  But  wind  farms  in  deep,  remote  waters  are  much  more  expensive  to   build,  connect  and  maintain  than  ones  in  shallower  coastal  waters,  as  the  U.K.  and  other  countries  have   built.   Germany  has  cut  its  target  for  offshore  wind  capacity  in  2030  to  15  gigawatts  from  25  gigawatts  but  IHS   estimates  the  economy  can  afford  to  develop  only  6.5  gigawatts.   Mr.  Yergin  also  criticized  Germany's  lack  of  support  for  natural  gas  exploration.  The  IHS  study  said   developing  natural  gas  supplies  in  Germany  and  around  the  EU  could  cut  European  gas  prices  by  up  to   20%.  IHS  estimated  German  production  could  cover  more  than  35%  of  its  domestic  gas  consumption.   27     Domestic  shale  gas  production  could  also  help  Germany  reduce  greenhouse  gas  emissions,  IHS   predicted.  An  unexpected  side  effect  of  energy-­‐market  upheaval  from  Germany's  renewables  push  has   been  an  increased  use  of  coal.  Coal  is  inexpensive  but  among  the  most  polluting  fuels  available.   "Lower  priced  gas  would  make  lower-­‐carbon,  gas-­‐fired  power  generation  more  economic  than  coal,   which  is  presently  more  economic,"  IHS  said.   Shale  gas  production  is  controversial  across  Europe,  however.  The  hydraulic  fracturing  process,  known   as  fracking,  is  opposed  by  many  environmentalists  and  residents  near  gas  fields,  who  fear  fracking  may   contaminate  groundwater.  Germany  has  effectively  banned  fracking.   While  Mr.  Yergin  criticized  most  of  Germany's  energy  policies,  he  supported  its  position  in  a  dispute  with   European  Union  regulators  over  exemptions  from  paying  energies  subsidies  that  Germany  grants  large,   energy-­‐intensive  manufacturers.  The  European  Commission,  the  EU's  executive  arm,  has  said  the   exemptions  may  violate  European  subsidy  limits.   Ending  the  rebates  could  cost  Germany  nearly  5%  of  its  gross  domestic  product  by  2020,  IHS  estimated.   "Abolishing  the  rebates  at  time  of  economic  weakness  in  Europe  would  be  penny-­‐wise  and  pound-­‐ foolish,"  Mr.  Yergin  said.   What’s  the  ‘true’  value  of  solar  power?  Stay  tuned    Denver  Business  Journal    Cathy  Proctor    2/26/14   http://www.bizjournals.com/denver/blog/earth_to_power/2014/02/the-­‐true-­‐value-­‐of-­‐solar-­‐power-­‐ stay.html     Supporters  of  solar  power  and  representatives  of  Xcel  Energy  Inc.  say  they  are  looking  forward  to  state   regulators  taking  a  hard  look  at  the  "true"  value  of  rooftop  solar  power  systems,  the  kind  that  typically   perch  on  residential  rooftops.     The  question  is  one  that  state  regulators,  solar  power  companies  and  utilities  in  several  states  across  the   country  are  looking  at.     “No  one  knows  the  answer,”  said  John  Stanton,  the  vice  president  of  policy  and  electricity  markets  for   SolarCity  Corp.,  a  large  solar  power  company  based  in  San  Mateo,  Calif.  “But  it  looks  like  we’re  getting   close  to  a  full  and  fair  accounting  in  Colorado."     Stanton  spoke  Wednesday  during  a  packed  session  on  the  net  metering  issue  at  2014  Solar  Power   Colorado,  an  annual  conference  for  the  industry  organized  by  the  Colorado  Solar  Energy  Industries   Association,  an  industry  trade  group.  The  conference  was  held  at  the  Omni  Interlocken  Resort  and   Conference  Center  in  Broomfield  on  Tuesday  and  Wednesday.     Solar  power  supporters  and  Xcel  have  been  gearing  up  for  a  fight  at  the  Colorado  Public  Utilities   Commission  (PUC)  for  months,  since  Xcel  (NYSE:  XEL)  in  July  2013  asked  to  take  a  look  at  the  issue  of   “net  metering.”     The  PUC  in  January  said  it  would  open  a  separate  docket  on  the  issue  to  try  to  come  up  with  a  number.     28     Net  metering  is  the  program  in  which  owners  of  solar  power  systems  receive  a  credit  on  their  monthly   electricity  bill  for  the  excess  solar  power  produced  by  their  rooftop  systems  and  sent  onto  the  electricity   grid.     Xcel  currently  credits  customers  at  a  rate  of  10.5  cents  per  kilowatt  hour  of  excess  power  produced,  but   the  utility  says  it  believes  the  “true  value”  is  about  halt  that  —  just  4.6  cents  per  kilowatt  hour.     Xcel  says  it  figures  the  solar  power  helps  the  utility,  and  its  customers,  avoid  the  cost  of  buying  or   generating  power,  and  the  associated  fuel  requirements,  due  to  the  solar  power  that’s  produced  by  the   rooftop  systems.     But  supporters  of  solar  power  say  the  value  of  the  renewable  electricity  is  higher  than  Xcel’s  figure.     Solar  power  supporters  say  the  net  metering  credits  are  big  driver  for  customers  interested  in  adding   solar  power  to  their  homes.  The  credits  have  become  more  important  in  the  last  few  years  as  rebates   and  other  incentives  have  dropped  to  near  zero  and  changes  to  the  net  metering  value  could  reduce   customers’  interest  in  solar  power  systems,  they  say.     But  as  more  solar  power  systems  have  been  added  in  the  last  few  years,  utilities  have  grown  concerned   that  customers  who  don’t  have  solar  power  systems  on  their  homes  may  unfairly  bear  the  burden  of   paying  to  support  the  electricity  grid  that  delivers  power.     “We  don’t  pretend  do  know  the  answer  [to  the  value  question],”  Stanton  told  the  group.  “And  if  the   benefits  are  less  than  the  costs,  then  fine,  but  let’s  find  the  answer.”     Frank  Prager,  Xcel’s  vice  president  of  policy  and  strategy,  said  the  utility  supports  the  PUC’s  new  docket   on  net  metering.     “We’d  love  to  find  a  way  to  have  a  future  for  rooftop  solar  and  also  to  have  it  be  fair  for  other   customers,  so  that  they  aren’t  subsidizing  their  neighbor’s  rooftop  solar,”  Prager  said.  “We  are  trying  to   have  an  open  discussion  on  the  true  value  that  [solar]  customers  of  utilities  receive,  and  there  is  a   value."     Once  the  value  of  the  hard  costs,  such  as  the  poles  and  wires,  has  been  established,  then,  Prager  said,   policy  makers  can  decide  on  solar  power's  value  for  other  things,  such  as  the  environmental  attributes   of  its  renewable  energy,  or  the  jobs  involved  in  the  solar  power  sector.     "Then  policy  makers  can  change  the  incentive  [part  of  the  net  metering  credit]  to  better  reflect  the   values  of  the  society,"  Prager  said.     Customers  tell  horror  stories  of  solar  company  that  gets  $422M  in  tax  dollars    Watchdog.org    Tori  Richards    2/26/14   http://watchdog.org/130098/solarcity-­‐horror-­‐stories/       We  all  get  them  —  telemarketing  callers  pushing  home  solar-­‐energy  systems  that  will  save  us  from  rising   electric  bills.   29     Most  of  us  generally  hang  up.  But  in  2012,  Jeff  Leeds,  who  lives  in  the  Northern  California  town  of  Half   Moon  Bay,  listened.  His  3,100-­‐square-­‐foot  home  features  91  incandescent  bucket  lights,  a  180-­‐gallon   fish  tank,  three  large  refrigerator-­‐freezers  and  a  huge  entertainment  system.  His  electric  bill  was   averaging  $350  per  month.   The  sales  pitch  Leeds  was  hearing  on  the  phone  sounded  ideal:  Lease  a  system  from  SolarCity,  the   nation’s  second-­‐largest  solar  electrical  contractor,  for  a  low  monthly  fee  and  reap  the  rewards  of  cheap   electricity.   “For  a  $600  fee  up  front,  I  would  pay  $182  a  month  for  the  next  20  years,”  Leeds  said.  “They  have  a   performance  guarantee.  If  I  don’t  make  enough  electricity,  they  said,  ‘No  problem,  don’t  worry,  we  will   write  you  a  check.’  I  thought,  ‘I’m  covered.’”   Tacked  on  to  that  would  be  what  the  company  called  a  small  bill  from  the  local  utility  company  allowing   the  customer  to  use  the  grid  and  to  cover  the  use  of  any  electricity  Leeds  drew  from  the  utility  rather   than  from  his  SolarCity  solar  panels.   Now,  15  months  later,  the  local  utility  company  has  raised  its  rates  and  instead  of  a  lower  bill,  Leeds  is   pushing  $500  a  month  with  no  way  out  for  the  next  two  decades.  And  he  has  the  eyesore  of  solar  panels   that  cover  most  of  his  roof.   “As  a  customer,  you  have  no  say,”  Leeds  said.  “With  a  solar  lease,  you  are  putting  the  stuff  on  your  roof.   You  have  a  signed  contract  with  the  devil  and  you  are  stuck  with  the  stuff.”   SolarCity  looked  into  Leeds’  case  after  receiving  a  call  from  Watchdog.org  and  offered  this  comment:   “Mr.  Leeds’  system  did  produce  less  than  we  guaranteed  last  year  so  he  will  be  compensated  for  that   under  his  performance  guarantee.”   Was  Leeds’  case  an  aberration?   SolarCity  has  generated  a  high  number  of  cases  of  shoddy  installation,  said  Gerald  Chapman,  building   inspector  manager  for  San  Mateo  County,  which  includes  Half  Moon  Bay.   “SolarCity  seems  to  be  the  biggest  offender,”  Chapman  told  Watchdog.org.   By  contrast,  he  said,  SolarCity’s  small  business  competitors  —  he  called  them  “the  little  guy”  —  “wants   to  do  it  right.”   “We  pride  ourselves  on  installation  quality,  but  if  we  do  make  a  mistake,  we  make  it  right,”  countered   Jonathan  Bass,  SolarCity’s  vice  president  of  communications.  “We  are  rated  A-­‐plus  by  the  Better   Business  Bureau,  the  highest  rating  they  provide.  Our  work  has  been  inspected  and  approved  by  more   U.S.  building  departments  than  any  other  solar  provider.”   Who  is  SolarCity?   The  Obama  administration’s  2009  stimulus  package  created  an  open  trough  of  cash  subsidies,  leading  to   an  explosion  of  solar-­‐energy  companies.  Some  of  those  —  Solyndra  is  the  most  prominent  example  —  went  bust  spectacularly.  But  such  high-­‐profile  failures  and  reports  of  widespread  abuse  have  done  little   to  dampen  entrepreneurial  enthusiasm.   With  rebates,  tax  breaks  and  the  steady  climb  of  electric  rates,  more  and  more  Americans  have  been   signing  on  for  solar.  But  retail  solar  technology  remains  expensive  —  upward  of  $20,000  per  home.   That’s  where  SolarCity  comes  in.   30     Founded  in  California  in  2006  by  Elon  Musk  —  PayPal  and  SpaceX  founder  and  CEO  of  Tesla  Motors,   creators  of  the  luxury  electric  car  —  SolarCity  leverages  a  unique  business  model  to  make  solar  more   affordable.  It  leases  systems  to  homeowners,  typically  for  a  20-­‐year  period.   SolarCity  has  accepted  more  than  $11  million  in  federal  stimulus  funds  to  make  its  business  run.  But  the   real  public  support  appears  elsewhere.  Because  SolarCity  technically  owns  the  energy  systems  it  installs,   SolarCity  —  not  the  homeowner  —  earns  the  federal  tax  break  intended  as  an  incentive  to  go  solar.  So   far  the  company  has  earned  $411  million  in  such  tax  breaks.  The  company  also  may  earn  additional   income  on  state  subsidies.   If  that  lease  is  a  financial  boon  to  SolarCity,  it  may  prove  problematic  for  SolarCity  consumers.  No  matter   how  rapidly  solar  technology  evolves,  the  SolarCity  lease  ties  each  homeowner  to  technology  that  is   cutting  edge  only  at  the  signing  of  the  20-­‐year  contract.   “Our  approach  is  to  install  systems  to  the  highest  engineering  standards,”  SolarCity  says  on  its  web  site.   “SolarCity  has  assembled  one  of  the  most  experienced  clean-­‐energy  project  design  and  installation   teams  in  the  world.”   The  marketing  has  paid  off.  SolarCity  claims  some  90,000  customers  in  14  states,  and  says  it  signs  a  new   customer  every  five  minutes.  The  company  says  its  customers  include  Home  Depot,  Walmart  and  the   U.S.  government.   SolarCity  vs.  inspectors   Yet  consumer-­‐oriented  sites  like  Yelp  and  the  Better  Business  Bureau  ,  the  organization  that  rates   SolarCity  an  A+,  feature  criticism  from  unhappy  customers  whose  complaints  follow  a  similar  theme  —  shoddy  installation,  poor  customer  service  and  hidden  fees.  Many  of  the  postings  have  an  almost  panic-­‐ stricken  tone  as  the  consumers  plead  for  some  sort  of  resolution  to  their  nightmarish  scenario.   More  often  than  not,  the  negative  comments  attract  the  attention  of  SolarCity  officials,  who  post   resolutions  to  the  various  problems.  Many  of  the  consumers  complain  that  they  have  spent  months   trying  to  remedy  faulty  installation,  only  to  receive  either  continuous  boilerplate  responses  from   customer  service  or  no  response  at  all.   One  California  man  got  a  front-­‐row  seat  at  the  conflict  between  SolarCity  installers  and  municipal   building  inspectors  who  are  sent  to  sign  off  on  the  system  before  it  is  allowed  to  operate.   “The  city  came  out  during  installation  and  an  inspector  gave  them  the  codes  and  requirements,”  said  the   consumer,  who  asked  not  to  be  identified.  “The  city  guy  told  them  exactly  what  he  wanted  and  what   was  necessary,  and  they  still  put  in  the  wrong  breakers  and  the  wrong  wiring.  The  inspector  came  back   out  and  looked  at  it  and  said,  ‘You  guys  put  the  wrong  breakers  on  —  I  told  you  guys  what  I  needed  for   the  code.’”   The  consumer  said  nearly  three  weeks  went  by  with  no  word  from  SolarCity.  He  finally  called  and  talked   to  a  manager  who  said  the  system  had  a  design  problem.   “I  said,  ‘What  do  the  designs  have  to  do  with  the  breakers?  Why  not  have  the  right  design  from  the  get-­‐ go?’”  he  said.     In  all,  he  claimed,  it  took  four  months  to  finish.   Four  months  was  blazing  fast  compared  to  the  experience  of  San  Diego  lawyer  Andrew  Athanassious.  He   first  talked  to  SolarCity  in  June  2013,  eager  to  get  a  system  installed  on  his  massive  home  before  a  large   31     September  2013  utility  rate  hike.  Despite  a  contract,  Athanassious  said  SolarCity  later  told  him  his  roof   was  “not  the  right  material”  and  he’d  have  to  pay  an  additional  $7,500.   Athanassious  is  no  building  contractor,  but  he  said  SolarCity’s  installers  should  have  known  what  they   were  getting  into.     “It’s  obvious  what  kind  of  roof  I  have.  It’s  clay  tile.  It’s  not  like  you  could  think  it’s  anything  else,”  he  said.   That  was  on  Aug.  1.  Athanssious  said  SolarCity  virtually  ignored  him  for  the  next  two  months.  He  finally   agreed  to  split  the  cost  of  the  system  with  SolarCity  because  they  were  still  the  lowest-­‐priced  contractor   and  because  finding  another  solar  company  would  take  too  much  time.  SolarCity  finally  installed  the   system  in  October.  Unlike  Leeds,  subsequent  electricity  costs  haven’t  been  a  problem.  Athanassious’   utility  bill  was  $410  per  month  and  now  it’s  zero.  He  pays  SolarCity  $357  per  month  for  a  lease,  saving   about  $50  a  month.   SolarCity  responded:  “Mr.  Athanassious’  system  did  require  a  roof  upgrade,  and  we  sourced  it  for  him  at   the  lowest  cost.”   But  Athanssious  has  problems  that  remain.  During  installation,  contractors  rewired  his  swimming  pool   heater  incorrectly  when  they  were  working  on  the  home’s  electric  panel.  They  still  haven’t  fixed  that,  he   said.  And  SolarCity  has  started  tacking  on  $15  per  month  to  Athanassious’  bill  because  he  refuses  to  pay   via  direct  deposit,  a  surcharge  hidden  in  the  contract.   Other  consumers  have  been  hit  with  the  $15  fee  as  well,  and  they’ve  complained  on  Yelp  and  to  the   Better  Business  Bureau.   “When  I  signed  up,  I  was  led  to  believe  that  they  had  online  bill  paying,”  Athanassious  said.  “When  I   called  them,  they  said  they  don’t  have  online  payment  capability.”   More  problems   Stefano  Chioetto  of  Denver  has  his  system  installed  last  February.  A  building  inspector  discovered  that   the  installed  inverter  was  incompatible  with  the  utility  grid  and  the  system  would  not  operate.  For  the   next  50  days,  Chioetto  checked  with  SolarCity  on  the  progress  of  a  replacement  part.  He  said  he  was   given  only  vague  answers  like,    “We  are  doing  our  best  and  are  committed  to  fixing  your  system  ASAP,”  according  to  his  Better  Business   Bureau  complaint.   “They  found  out  that  the  inverter  they  actually  needed  was  very  expensive  and  they  had  to  shop  around   and  had  no  idea  where  to  find  it  to  fit  in  their  budget,”  Chioetto  told  Watchdog.org,  saying  he   discovered  this  from  an  outside  solar  energy  expert  that  he  contacted.   Meanwhile,  the  summer  months  had  arrived  and  Chioetto  was  annoyed  that  he  couldn’t  use  his  panels.   After  he  complained  to  the  BBB,  the  problem  was  fixed  almost  immediately  —  two  months  after  the   building  inspector’s  discovery.   But  now  he  has  a  new  problem.  Chioetto  lives  in  a  townhome  and  shares  a  roof  with  his  neighbor,  who   has  decided  to  get  solar  panels  of  his  own.  He  discovered  that  SolarCity  installed  the  panels  about  18   inches  onto  the  neighbor’s  side  of  the  roof  even  though  the  dividing  wall  is  clearly  visible  even  from  the   ground,  both  men  said.   “It’s  very  obvious  that  it’s  going  over  a  foot  and  a  half,”  said  the  neighbor,  who  did  not  want  to  be   named.  “You  can  absolutely  see  the  property  line  without  going  on  the  roof.”   32     SolarCity  admitted  that  was  a  problem.   “Mr.  Chioetto  had  a  grid  parameter  that  is  unusual  in  a  residential  site,  and  we  ultimately  found  a   compatible  inverter  that  could  support  it,  and  we  are  redesigning  his  system  to  appease  his  neighbor   and  still  offer  him  the  same  performance,”  SolarCity  said  in  its  emailed  statement.   The  neighbor  decided  against  using  SolarCity  because  it  kept  changing  terms  of  the  contract  by   continuing  to  reduce  the  amount  of  electricity  that  would  be  produced.  Meanwhile,  he  says,  SolarCity   hasn’t  fixed  the  encroachment.   “They  said  they  are  researching  modules  that  are  smaller,  and  it’s  back-­‐ordered  until  May,”  the  neighbor   said.  “I  don’t  know  if  I  believe  that.”   Industry  Fights  Bill  that  Would  Tax  Solar  Panels    AZ  Central    Ryan  Randazzo    2/26/14   http://www.azcentral.com/business/consumer/articles/20140226industry-­‐fights-­‐bill-­‐would-­‐tax-­‐solar-­‐ panels.html       The  solar  industry  is  fighting  a  bill  introduced  by  Rep.  John  Allen,  R-­‐Scottsdale,  that  would  tax  solar   panels  that  are  leased  by  homeowners.   Current  Arizona  property  tax  law  states  that  rooftop  solar  panels  used  to  generate  electricity  on  site  for   a  home  or  business  are  not  assessed  property  tax.  But  the  Department  of  Revenue  last  year  issued  a   determination  that  leased  solar  panels,  the  fastest  growing  segment  of  the  industry  by  far,  should  be   assessed  property  tax.   The  Department  of  Revenue  found  the  actual  owners  of  those  systems  are  the  companies  such  as   SolarCity  that  offer  the  leases,  or  their  investors,  and  they  are  not  using  the  power  “on-­‐site”  the  same  as   a  customer  who  buys  solar  panels  for  a  home  or  business.  The  state  has  not  begun  billing  those  solar-­‐ panel  owners  for  the  taxes  owed  on  panels,  but  could  without  a  clarification.  Two  bills  were  introduced   at  the  Legislature  this  session  to  clarify  the  law.   Allen’s  proposal,  House  Bill  2595,  aligns  with  the  Department  of  Revenue  and  clarifies  that  the  owners  of   the  solar  panels  would  be  assessed  taxes,  regardless  if  the  electricity  is  being  used  on  site.   Solar  industry  officials  said  that  Arizona  Public  Service  Co.,  which  tried  to  increase  the  bills  of  solar   customers  last  year,  proposed  the  bill,  which  the  utility  denies.   Allen  declined  to  comment  Wednesday  regarding  why  he  introduced  the  bill.   APS  officials  said  they  were  not  pushing  the  bill.   “Our  focus  is  on  continuing  to  develop  solar  power  in  Arizona,”  APS  spokesman  Jim  McDonald  said.  “Not   only  is  HB  2995  not  a  priority  for  us,  we  have  not  taken  a  position  on  it.  It  is  a  department  of  revenue   issue.”   The  solar  industry  is  pushing  its  own  clarification  of  the  taxation  rules  in  Senate  Bill  1467,  sponsored  by   Sen.  John  McComish,  R-­‐Phoenix.  His  bill  would  clarify  that  solar  panels  are  not  subject  to  property  tax,   regardless  of  who  owns  them,  when  they  produce  power  used  on  site  by  a  home  or  business.   McDonald  declined  to  say  whether  APS  has  a  position  on  that  bill.   Officials  from  companies  that  finance  solar  leases,  and  would  be  subjected  to  taxes  for  the  panels  they   own  and  lease  to  homeowners,  said  they  suspect  APS’  involvement  on  the  matter.   33     These  companies  spent  most  of  last  year  fighting  with  APS  over  a  fee  the  utility  proposed  for  solar   customers.  APS  proposed  a  fee  of  $50  to  $100  a  month  on  customers  who  use  solar  and  pay  little  in  the   way  of  an  energy  bill,  even  if  they  pay  a  monthly  lease  for  their  panels.   Regulators  settled  on  a  fee  that  averages  about  $5  a  month  for  solar  customers,  and  only  affects  those   who  installed  solar  after  Jan.  1.   “This  won’t  even  make  them  any  money,”  said  Bryan  Miller,  vice  president  for  public  policy  and  power   markets  for  Sunrun  Inc.  “It’s  just  going  to  hurt  the  solar  industry.”   Report:  Solar  Paired  With  Storage  Is  a  ‘Real,  Near  and  Present’  Threat  to  Utilities    Greentech   Media    Stephen  Lacey    2/26/14   http://www.greentechmedia.com/articles/read/where-­‐and-­‐when-­‐customers-­‐may-­‐start-­‐leaving-­‐the-­‐grid     In  October  2012,  as  Superstorm  Sandy  rocked  the  East  Coast,  75  residents  gathered  in  the  Midtown   Community  School  in  Bayonne,  New  Jersey.     The  elementary  school  was  operating  as  an  emergency  shelter,  giving  people  who  were  stuck  in  the   severely  flooded  town  a  place  to  stay  dry.  But  the  school  was  much  more  than  a  shelter  -­‐-­‐  it  was  an   experiment  in  hybrid  solar  photovoltaics  that  may  herald  a  coming  structural  change  in  the  power   sector.   Four  years  earlier,  the  local  school  district  approached  the  New  Jersey-­‐based  installer  Advanced  Solar   Products,  which  had  already  developed  a  272-­‐kilowatt  system  for  the  Midtown  school.  The  school   district  wanted  to  figure  out  how  to  allow  the  solar  PV  to  operate  during  power  outages  when  other   systems  were  required  to  shut  off.  The  company  worked  with  SMA  to  modify  a  commercial  inverter  and   tie  it  into  the  emergency  diesel  generator,  allowing  the  generator  to  idle  at  low  levels  when  the  sun  was   shining.   The  result  was  a  steep  drop  in  fuel  consumption  at  a  time  when  it  was  nearly  impossible  to  make  diesel   deliveries  to  flood-­‐stricken  areas.   "The  solar  did  what  it  was  supposed  to  do.  It  worked  exactly  as  planned,"  said  Lyle  Rawlings,  president   of  Advanced  Solar  Products,  in  an  interview.   Although  the  system  was  a  custom  job,  making  it  fairly  expensive,  Rawlings  says  his  company  took  the   experience  to  heart.  Advanced  Solar  Products  is  now  working  with  other  commercial  facilities  to   integrate  lithium-­‐ion  batteries  with  solar,  and  plans  to  make  solar-­‐storage  systems  a  bigger  part  of  the   business  going  forward.   "We  see  this  as  a  thing  that's  going  to  develop  more  and  more,  and  we  want  to  take  the  lead  in   development,"  said  Rawlings.     And  it's  not  just  emergency  backup  that  makes  storage  attractive.  Now  that  fast-­‐responding  systems  like   flywheels  and  lithium-­‐ion  batteries  can  get  paid  for  frequency  regulation  services  in  PJM  or  help  reduce   onsite  demand  charges  for  commercial  facilities,  storage  is  emerging  as  a  viable  economic  alternative.   In  one  case,  Advanced  Solar  Products  was  able  to  pay  for  a  commercial  storage  system  and  inverter   through  frequency  regulation  payments  -­‐-­‐  actually  making  the  cost  of  a  hybrid  solar-­‐storage  system   lower  than  solar  alone.   "That,  to  us,  seemed  magical,  and  it  told  us  we  could  provide  this  service  for  a  low  cost,"  said  Rawlings.   34     Now  that  storage  is  moving  beyond  simple  emergency  applications,  that  "magical"  alternative  -­‐-­‐  while   still  very  site-­‐  and  market-­‐specific  -­‐-­‐  is  emerging  as  a  potential  threat  to  utilities.     Driven  by  market  changes  that  reward  storage,  improving  system  economics  and  third-­‐party  financing   tools,  the  nascent  distributed  storage  market  is  on  the  upswing  in  the  U.S.  Witnessing  these  changes,   the  country's  leading  solar  installer,  SolarCity,  has  started  offering  solar  paired  with  storage  to   commercial  customers.  And  distributed  storage  providers  such  as  Solar  Grid  Storage,  Stem,  Intelligent   Generation  and  Green  Charge  Networks  are  reaching  out  to  solar  developers  to  form  partnerships.   A  recent  GTM  Research  report  projected  that  the  U.S.  commercial  storage  market  could  grow  to  more   than  720  megawatts  by  the  end  of  the  decade.  Some  of  that  growth  will  come  directly  from  a  closer   relationship  with  the  solar  industry.   So  what  does  this  mean  for  the  power  sector's  future?   The  Rocky  Mountain  Institute  and  CohnReznick  attempted  to  answer  that  question  in  a  new  report   released  yesterday.  The  analysis  looks  at  the  economics  of  storage-­‐solar  systems  in  the  commercial  and   residential  sectors,  and  projects  when  mass  adoption  may  start  to  occur  in  key  markets.     The  conclusion:  the  combination  of  solar  and  storage  is  a  "real,  near,  and  present"  threat  to  the  way   utilities  do  business.   "The  coming  grid  parity  of  solar-­‐plus-­‐battery  systems  in  the  foreseeable  future,  among  other  factors,   signals  the  eventual  demise  of  traditional  utility  business  models,"  wrote  the  authors.   Using  modeling  software  from  Homer  Energy  and  electricity  data  from  the  Energy  Information   Administration,  the  analysts  looked  at  a  range  of  technology  scenarios  in  the  commercial  sector  for   solar,  lithium-­‐ion  batteries,  and  generators  working  together.  In  the  residential  sector,  the  analysts   looked  just  at  solar  and  batteries.   On  their  own,  the  economics  of  the  two  technologies  are  improving  steadily.  According  to  the   Department  of  Energy,  lithium-­‐ion  battery  costs  have  dropped  by  50  percent  since  2008.  And  prices   could  drop  as  low  as  $125  per  kilowatt-­‐hour  in  the  coming  decades.  Tesla  founder  Elon  Musk  thinks  they   could  drop  to  as  low  as  $200  per  kilowatt-­‐hour  in  the  next  few  years.   There's  been  an  equivalent  drop  in  residential  and  commercial  solar.  According  to  GTM  Research,  the   average  price  of  an  installed  solar  system  (weighted  across  all  sectors)  has  fallen  by  61  percent  since  the   first  quarter  of  2010.   The  RMI/CohnReznick  analysis  shows  a  range  of  other  projections  for  cost  forecasts,  which  illustrate  an   equally  steady  decline  in  the  coming  decades.  Those  cost  reductions,  driven  by  better  hardware,  lower   module  prices,  efficient  installation  techniques  and  scale,  are  helping  to  further  drive  down  system   prices.   But  what  about  the  combination  of  the  two  technologies?  Adding  storage  will  increase  the  cost  of  a   solar  system.  Although  those  costs  can  be  addressed  by  leveraging  storage  to  reduce  on-­‐site  demand   charges  or  participate  in  frequency  regulation  where  allowed,  the  economics  vary  widely  based  upon   the  region.   The  analysis  looked  at  five  cities:  Honolulu,  Hawaii;  Los  Angeles,  California;  Louisville,  Kentucky;  San   Antonio,  Texas;  and  Westchester,  New  York.     35     Under  a  base-­‐case  scenario,  which  simply  factors  in  existing  technologies  and  market  constructs,  the   authors  argue  that  the  combination  is  only  truly  competitive  in  Hawaii,  where  oil-­‐based  generation  is   extremely  expensive.  (However,  as  the  previously  mentioned  case  from  New  Jersey  shows,  the   technology  can  be  competitive  at  specific  sites  in  other  markets.)   Under  a  more  aggressive  scenario,  which  factors  in  strong  technology  improvements  and  deeper  use  of   intelligent  efficiency,  solar  and  storage  together  become  competitive  much  sooner  in  a  broader  range  of   markets  -­‐-­‐  even  becoming  a  strong  alternative  in  a  coal-­‐based  state  like  Kentucky,  where  electricity   prices  are  relatively  low.   Competitiveness  in  the  residential  sector  will  occur  later,  but  there  are  still  opportunities  for  grid  parity   by  the  end  of  the  decade  -­‐-­‐  or  even  today  -­‐-­‐  in  several  markets.   The  timing  outlined  in  the  report  varies  widely  depending  on  a  number  of  technological  and  market-­‐ based  factors.  But  even  under  the  most  conservative  scenario,  the  authors  conclude  that  solar  and   storage  together  have  the  potential  to  massively  erode  utility  revenue.   In  the  Southeast  and  Mid-­‐Atlantic  markets,  these  technologies  could  be  less  expensive  than  one-­‐fifth  of   load  by  2024  with  no  dramatic  improvements.  That  means  more  than  1.2  million  customers  in  those   regions  may  have  the  opportunity  to  virtually  disconnect  from  the  power  company.  Under  a  more   advanced  scenario,  utilities  in  those  regions  could  be  at  risk  of  losing  their  traditional  relationship  with   millions  more  customers.   "In  the  Southwest,  as  many  as  20  million  residential  customers  could  find  economic  advantage  by  2024   with  solar-­‐plus-­‐battery  systems  under  our  combined  improvement  scenario.  In  the  Mid-­‐Atlantic,  roughly   8  million  customers  will  find  favorable  economics  for  solar-­‐plus-­‐battery  hybrid  systems  by  2024  given   the  same  combined  improvements.  Between  the  two  geographies,  this  represents  over  $34  billion  in   annual  utility  revenues,"  wrote  the  authors.   Earlier  this  month,  former  Duke  Energy  CEO  called  the  power  grid  a  "blank  sheet  of  paper"  and   predicted  that  most  power  plants  will  need  to  be  replaced  by  the  middle  of  the  century.     "One  of  the  big  challenges  as  we  redesign  the  generation  fleet  in  this  country  is  [figuring  out]  what  this   mix  will  be,"  Rogers  said.   Even  with  no  dramatic  changes,  the  RMI/CohnReznick  analysis  shows  that  solar  and  storage  together   will  be  competitive  in  most  regions  of  the  U.S.  by  2050.  Assuming  most  of  the  country's  centralized   power  plants  need  to  be  replaced  by  that  time,  the  relationship  between  utilities  and  their  customers   will  be  irreversibly  changed  as  more  people  invest  in  hybrid  systems.   "Utilities  operate  on  a  long  time  horizon,  and  concerns  about  grid  defection  should  be  creeping  toward   the  forefront  of  utilities'  minds  now,"  said  Shayle  Kann,  senior  VP  of  GTM  Research.  "In  addition,  this   should  be  a  prime  factor  in  utility  considerations  regarding  changes  to  net  energy  metering  programs.   The  more  utilities  move  toward  rate  structures  that  impose  fixed  charges  which  cannot  be  reduced   through  net  metering,  the  greater  the  incentive  for  customers  to  defect."   Utilities  are  currently  worried  about  what  solar  may  do  to  revenues,  and  are  working  to  change  net   metering  policies  in  order  to  account  for  grid  costs.  But  that  may  only  be  a  short-­‐term  fix.  If  storage   continues  to  gain  traction  as  a  viable  partner  to  solar,  customers  may  still  have  the  opportunity  to   loosen  or  break  ties  with  their  power  company.   "Millions  of  customers...representing  billions  of  dollars  in  utility  revenues  will  find  themselves  in  a   position  to  cost-­‐effectively  defect  from  the  grid  if  they  so  choose,"  concluded  the  report  authors.   36     Solar  Advocates  Oppose  Duke  Energy  Plan  to  Cut  Solar  Prices    Charlotte  Business  Journal     John  Downey    2/26/14   http://www.bizjournals.com/charlotte/blog/power_city/2014/02/solar-­‐advocates-­‐oppose-­‐duke-­‐energy-­‐ plan-­‐to-­‐cut.html     The  N.C.  Sustainable  Energy  Association  says  Duke  Energy’s  plan  to  seek  a  cut  in  how  much  it  pays   customers  for  solar  power  from  small  projects  is  unfair  and  has  hurt  the  state’s  solar  industry.   It  says  state  regulators  should  protect  customers  by  at  least  guaranteeing  the  price  a  utility  pays  for  such   power  will  be  good  for  10  years  after  the  project  is  installed.  And  it  wants  regulators  to  force  Duke  to   disclose  how  it  contends  the  price  paid  now  for  such  power  is  unfairly  high  and  harms  customers  who  do   not  install  solar  on  the  homes  or  businesses.   At  issue  is  the  price  the  state  requires  utilities  to  pay  under  its  “net  metering”  provisions.  Solar  projects   during  parts  of  a  day  often  produce  more  power  than  the  customer  who  owns  it  can  use.  During  those   times,  utilities  are  required  to  credit  the  customer  for  that  power  at  the  same  retail  rate  the  customer   would  pay  the  utility  for  power.   Full  retail  rate   Duke  contends  that  this  requires  it  to  overpay  for  the  power.  And  it  has  been  clear  it  intends  to  ask   regulators  to  review  net  metering  and  reduce  the  price  utilities  are  required  to  pay.   “We  want  to  pay  what  this  power  is  worth,”  says  spokesman  Randy  Wheeless.  “We  are  conducting   operational  studies  to  help  us  determine  what  that  should  be.”   Duke  says  crediting  customers  at  the  full  retail  rate  allows  them  to  avoid  some  of  the  costs  they  should   bear  for  infrastructure  that  delivers  power  to  their  home  or  business  when  the  solar  panels  are  not   producing  power.  It  would  prefer  to  pay  a  rate  closer  to  the  avoided-­‐cost  rate  it  pays  for  power  from   larger  solar  projects.   Those  costs  then  have  to  be  paid  by  customers  who  do  not  have  solar  installed,  Duke  says.  That  often   works  to  the  detriment  of  lower-­‐income  and  fixed-­‐income  customers  who  do  not  feel  they  can  afford  to   install  solar  projects.   Recent  study   In  a  motion  filed  this  week  with  the  N.C.  Utilities  Commission,  the  association  contends  there  is  no   evidence  the  price  set  for  credits  under  the  state’s  net  metering  requirements  are  unfair.  And  the   association  contends  current  evidence  indicates  otherwise.   It  cites  a  2013  study  by  Crossborder  Energy.  That  report  finds  that  when  costs  and  benefits  are  taken   into  account,  the  costs  to  non-­‐solar  customers  tend  to  be  less  than  the  benefits  even  for  customers   without  solar.   The  association  wants  the  commission  to  require  Duke  to  disclose  what  analysis  it  has  that  supports  the   claim  that  net  metering  is  unfair.   It  contends  Duke’s  public  announcement  that  it  will  seek  to  reduce  the  compensation  from  net  metering   has  created  uncertainty  in  the  N.C.  market  for  small  solar  projects.  It  quotes  locally  owned  solar  business   as  saying  this  has  had  a  “chilling  effect”  on  the  market  as  customers  hold  off  on  installing  solar  projects   for  fear  the  credit  they  receive  for  net  metering  will  be  cut  in  coming  months.   37     Guaranteed  price   As  a  partial  solution  to  that,  the  association  calls  for  a  10-­‐year  guaranteed  price  for  a  customer  who   installs  solar.  The  proposal  would  not  necessarily  lock  in  net  metering  credits  at  their  current  level.  But  it   would  guarantee  customers  that  once  they  installed  a  project,  they  would  receive  whatever  net   metering  credit  is  available  when  the  project  is  completed  for  ten  years.  That  would  protect  them  from   changes  in  the  credit  after  they  purchase  a  project.   It  also  will  make  it  easier  for  solar  installers  to  sell  small  home  and  commercial  projects.  The  association,   which  represents  such  installers,  says  this  is  consistent  with  20  years  of  state  public  policy,  which  has   supported  development  of  solar  as  a  hedge  against  the  monopolistic  power  of  utilities.   “It  is  perhaps  solely  the  existence  of  this  competitive  threat  that  prevents  Duke  Energy  ...  from  rising  to   the  level  of  monopolies  that  are  forbidden  by  the  state’s  constitution,”  the  motion  says.   Duke  says  it  has  1,300  customers  who  take  advantage  of  net  metering  credits  in  North  Carolina.  They   account  for  less  than  14  megawatts  of  Duke’s  more  than  30,000  megawatts  of  capacity  in  the  Carolinas.   GDF  Suez  Earnings:  Utility  Takes  $20.4  Billion  Write-­‐Down    The  Wall  Street  Journal    Inti   Landauro    2/27/14   http://online.wsj.com/news/articles/SB10001424052702304255604579408362026916346     PARIS—  GDF  Suez  SA  wrote  down  €14.9  billion  ($20.4  billion)  in  assets,  a  glaring  example  of  how   Europe's  large-­‐scale  power-­‐generation  industry  has  been  crippled  by  wind  and  solar  electricity.   "We  consider  that  the  deterioration  of  gas  storage  and  thermal-­‐energy  production  in  Europe  is   deep  and  long-­‐lasting,"  Chief  Executive  Gérard  Mestrallet  said  Thursday  as  the  company  reported  a   loss  for  last  year.   Even  for  a  large  company  with  global  reach  and  annual  revenue  of  almost  €90  billion,  the   impairment  charge  was  huge,  erasing  12%  from  the  value  of  GDF's  total  assets.   GDF,  German  rivals  RWE  AG  and  E.  ON  SE  and  other  big  utilities  dominated  Europe's  power  market   for  decades,  until  the  growth  of  subsidized  renewable  energy  undermined  their  traditional  business   models.     Mr.  Mestrallet  repeatedly  has  said  that  subsidies  for  renewable  energy  are  turning  traditional   power  production  into  a  losing  proposition.   He  heads  a  group  of  utility  CEOs  who  are  lobbying  to  phase  out  subsidies  to  solar  and  wind  power  in   Europe.  GDF  invests  in  renewable  sources,  but  aging,  traditional  plants  make  up  the  vast  majority  of   its  capacity.   European  wind-­‐  and  solar-­‐power  producers  benefit  from  priority  access  to  the  electricity  grid  and   guaranteed  prices  well  above  the  market  price,  regardless  of  demand.     The  difference  is  paid  for  through  taxes  and  higher  retail  prices  for  electricity  from  traditional   sources.   Gas-­‐fired  power  plants  are  the  most  vulnerable.  Coal-­‐fired  plants  have  fared  better—an  unexpected   result  of  the  U.S.  shale-­‐gas  boom  as  power  producers  in  the  country  have  switched  from  coal.     That  has  spurred  U.S.  exports  of  coal,  sending  its  price  lower  world-­‐wide.   38     By  the  end  of  last  year,  GDF  had  mothballed  around  10  gigawatts  of  capacity.  Another  five   gigawatts  are  under  review  for  closure.   The  situation  began  to  sour  for  utilities  with  the  2008  financial  crisis,  when  electricity  demand   slowed  across  Europe  and  more  solar  panels  and  wind  farms  sprang  up,  further  weakening   wholesale  power  prices.   The  bloodletting  has  been  heavy  across  Europe.  RWE  in  January  said  it  would  write  down$4.5  billion   on  power-­‐generation  assets  across  the  Continent.  The  utility  said  it  would  report  its  first  annual  loss   Tuesday  because  of  the  charge.   E.  ON,  Germany's  largest  utility  by  market  value,  has  written  down  the  value  of  its  power  plants  by   several  billions  of  euros  over  the  past  two  years.   GDF  on  Thursday  reported  a  net  loss  of  €9.3  billion  for  2013,  compared  with  a  €1.54  billion  net   profit  a  year  earlier.  Excluding  the  effects  of  the  write-­‐down  and  asset  sales,  the  company  posted   earnings  of  €3.4  billion  for  last  year.   GDF's  shares  rose  6%  in  Paris  trading  as  analysts  welcomed  the  move  to  clean  the  slate.  GDF  had   already  warned  it  would  take  the  impairment  charge.     The  company  on  Thursday  also  raised  its  forecast  for  2014  net  recurring  income  to  between  €3.3   billion  and  €3.7  billion.  GDF  earlier  had  forecast  between  €3.1  billion  and  €3.5  billion.     The  write-­‐off  shows  "our  determination  to  transform  the  group  quickly  and  decisively,"  Mr.   Mestrallet  said.  Mr.  Mestrallet  has  said  that  the  company's  future  lies  in  emerging  markets.  "We   want  to  become  the  leading  power  company  in  countries  with  strong  growth,"  he  said.   —Géraldine  Amiel  in  Paris  and  Jan  Hromadko  in  Frankfurt  contributed  to  this  article.   SolarCity  CEO,  joined  by  Tesla’s  Musk,  says  regulators  must  address  ‘market  failure’    SNL   Energy    Christine  Cordner    2/28/14   http://www.snl.com/InteractiveX/Article.aspx?cdid=A-­‐27064257-­‐13354     Predicting  an  eventual  phase-­‐out  of  the  current  U.S.  grid  system,  Tesla  Motors  CEO  Elon  Musk  and   SolarCity  Corp.  CEO  Lyndon  Rive  are  hoping  regulators  will  help  them  get  around  utilities  concerned   about  cost-­‐shifting  as  they  seek  to  expand  distributed  generation  and  energy  storage  use  among   ratepayers. "There  will  be  some  amount  of  strife  for  existing  utilities,  particularly  ones  heavy  into  fossil  fuels.  There   will  be  a  bit  of  hardship  for  them.  But  we  have  no  choice.  We  have  to  decide  if  we're  going  to  have   clean,  sustainable  energy  or  not,  and  if  we  decide  we  want  a  good  future  …  then  we  need  to  make  hard   decisions  to  achieve  that  objective,"  Musk  said,  speaking  Feb.  27  at  a  California  Public  Utilities   Commission's  Thought  Leaders  series  event  in  San  Francisco.   The  PUC  event  came  a  day  after  Tesla  announced  plans  to  build  a  factory  aimed  at  slashing  costs  of   lithium  ion  batteries  by  30%  per  kWh.  When  the  so-­‐called  Gigafactory  opens  in  2020  at  a  projected  cost   of  between  $4  billion  and  $5  billion,  it  is  expected  to  have  a  cell  output  of  35  GWh  a  year.  The  batteries   will  be  used  in  Tesla  vehicles,  but  also  in  stationary  applications,  namely  products  for  use  in  homes,   commercial  sites,  and  by  utilities,  the  company  said.   39     Coming  from  the  Silicon  Valley  tech  world  where  disrupting  traditional  industries  through  innovation  is  a   mantra,  Musk,  who  is  also  chairman  of  solar  panel  installer  SolarCity  and  Rive's  cousin,  described  the   utility  industry's  concern  over  cost  shifting  from  net  metering  "like  a  giant  with  someone  tapping  at  their   toe"  given  how  much  of  a  threat  it  is  currently  to  the  U.S.  utility  sector.  "It's  really  silly,"  he  said.  Rive   said  that  the  situation  is  more  like  "touching  the  hair  of  the  toe"  of  the  giant  given  net  metering  impacts   only  0.3%  of  utility  revenues.   Despite  this  downplaying,  Musk  and  Rive  understood  well  why  investor-­‐owned  utilities  now  and  in  the   future  see  accelerated  expansion  of  distributed  generation  and  energy  storage  as  a  serious  threat  to   their  business  model,  which  has  been  historically  based  on  energy  sales  and  returns  from  investment  in   infrastructure  such  as  wires  and  centralized  power  plants.  As  ratepayers  rely  less  on  their  local  utility  for   power  supply,  this  throws  into  question  how  utilities  will  recoup  investments  from  fewer  customers   making  up  their  rate  bases,  all  while  having  a  fiduciary  responsibility  to  their  shareholders.  Those   customers  left,  they  fear,  will  see  utility  costs  shift  to  those  who  opt  not  to  or  cannot  buy  solar  panels   and  energy  storage  technology,  which  covers  electric  vehicles  as  well  as  stationary  battery  installations.   "Whenever  I  hear  'cost  shift,'  it's  the  wrong  word  to  use.  Revenue  loss  —  that's  the  issue  [for  utilities],"   Rive  said,  adding  the  better  term  would  be  "revenue  shift"  given  the  real  issue  is  that  utilities  want  to   keep  their  revenues.   Facing  pressure  from  reluctant  utilities,  the  clean  energy  business  entrepreneurs  looked  to  regulators  to   smooth  their  path.  Musk  said  pursing  customer  generation  options  such  as  battery  packs  in  garages  fed   by  solar  panel  roof  installations  is  about  creating  a  world  of  clean  sustainable  energy  with  regulators   "essential  to  make  sure  the  right  thing  happens." Rive  contended  that  "climate  change  is  a  market  failure  that  is  occurring"  and  regulators  need  to  step  up   to  address  that  as  they  have  other  market  failures.  Believing  decarbonizing  the  energy  sector  should  be   a  goal  shared  by  everyone,  he  concluded:  "We  don't  want  two  energy  infrastructures.  At  some  point   someone  has  to  shut  down,  and  if  you  fast  forward  10  or  20  years,  I  don't  think  we'll  be  shutting  down   cleaner  energy."   More  foreplay  with  cash  cows?   Also  on  the  panel,  PUC  President  and  former  Southern  California  Edison  Co.  executive  Michael  Peevey   supported  Musk  and  Rive's  drive  to  innovate  clean  energy  technology  and  usage  by  customers.  He   acknowledged  that  regulation  can  "put  a  damper"  on  innovation  and  that  the  energy  sector  is  not   known  for  innovative  policy.  But  he  did  highlight,  at  least  in  California,  that  innovative  policies  have   been  pursued,  including  the  California  Solar  Initiative  for  rooftop  solar  and  the  state's  loading  order  that   puts  energy  efficiency  and  renewable  energy  above  traditional  generation  resources.   Peevey  also  highlighted  that  the  PUC  in  October  2013  ordered  PG&E  Corp.  subsidiary  Pacific  Gas  and   Electric  Co.,  Edison  International  subsidiary  SoCalEd,  and  Sempra  Energy  subsidiary  San  Diego  Gas  &   Electric  Co.  to  issue  solicitations  starting  this  year  to  procure  a  total  of  1,325  MW  of  energy  storage   capacity  by  2020.   40     Peevey  said  he  shared  the  "frustration  and  lack  of  tolerance  of  the  status  quo"  felt  by  Musk  and   particularly  Rive,  who  relayed  his  company's  problems  with  California  utilities  slowly  connecting   customer  solar  systems  to  the  grid  or  "roadblocks"  as  he  called  them.   "You  will  always  have  resistance  from  incumbents,"  Peevey  said,  noting  that  the  economics  of  losing   customers  will  continue  to  motivate  them.  He  relayed  a  similar  experience  he  had  with  New  Energy   Ventures,  his  former  clean  energy  solutions  company  that  was  sold  to  AES  Corp.  for  $90  million  in  1999.   It  involved  a  utility  delaying  the  installation  of  a  new  meter  at  a  San  Francisco  department  store.  He   jokingly  did  not  want  to  mention  the  utility,  but  it  would  be  PG&E.   Could  he  go  back  in  time  with  a  new  strategy,  Peevey  said  it  would  be  working  more  cooperatively  with   legislators  and  utilities.  "I  wish  I  spent  more  time  trying  to  be  inclusive.  …  More  foreplay  or  romance,  if   you  will,"  he  said.   With  his  final  PUC  term  done  by  year-­‐end,  Peevey  hoped  utilities  in  the  future  would  adapt  their   business  models  to  change,  especially  since  he  expected  them  to  continue  to  be  profitable  and  remain   "great  cash  cows."  They  will  become  "wires  companies  until  they  are  ultimately  finished  by  storage,"  he   predicted,  but  they  will  be  left  with  "a  lot  of  money  to  invest  in  other  things."   Ultimately,  "the  race  goes  to  the  swift  and  the  clever,"  Peevey  said,  with  utilities  entering  that  race  with   enough  money  "to  exploit  and  invest."  Stranded  assets  are  not  the  challenge  but  rather  fostering   innovation  is,  he  said:  "I'm  not  worrying  about  long-­‐lived  assets  of  the  past  that  are  largely  depreciated."     Massive  losses  hit  Energy  Australia  as  demand  falls,  solar  soars    RenewEconomy    Giles   Parkinson    2/28/2014   http://reneweconomy.com.au/2014/massive-­‐losses-­‐hit-­‐energyaustralia-­‐as-­‐demand-­‐falls-­‐solar-­‐soars-­‐ 67443   EnergyAustralia,  one  of  the  big  three  utilities  in  the  country,  has  slumped  to  a  loss  of  $350  million  for   calendar  2013  after  slashing  the  value  of  its  Yallourn  brown  coal  generator,  as  well  as  some  of  its  gas-­‐ fired  generation  assets.   The  write-­‐down  came  as  the  company,  owned  by  Hong  Kong  based  CLP  Holdings,  returned  a  profit  of   just  $18  million  (down  from  $236  million  in  2012)  for  the  year  from  its  portfolio  of  coal  and  gas   generation  and  its  large  retail  customer  base  –  a  result  it  blamed  mostly  on  an  “unprecedented”  fall  in   demand,  and  the  popularity  of  solar  PV.   EnergyAustralia  also  chose  to  write  off  about  $300  million  from  the  value  of  its  ageing  Yallourn  brown   coal  generator  in  Victoria.  This  was  part  of  a  total  write-­‐down  of  $445  million,  which  even  included  an   $85  million  gain  from  what  it  called  the  “bargain  basement”  purchase  of  the  Mt  Piper  and  Wallerawang   coal  fired  power  stations  from  the  NSW  Government.   The  results  put  in  context  the  implacable  opposition  that  EnergyAustralia  has  to  the  renewable  energy   target,  which  it  wants  halted  in  its  tracks  in  the  current  review  commissioned  by  the  Abbott   government.   41     And  it  also  highlights  the  dilemma  that  the  industry,  and  for  that  matter  the  government,  finds  itself  in   over  soaring  gas  prices,  which  are  making  the  gas-­‐fired  generators  of  EnergyAustralia,  Origin  Energy,   AGL  Energy  and  others,  such  as  Stanwell  Corp,  uneconomic  to  run  because  they  are  priced  out  of  the   market.  Their  ability  to  compete  is  made  worse  by  the  Abbott  government’s  decision  to  try  and  dump   the  carbon  price.   It  also  explains  why  CLP  chose  to  defer,  indefinitely,  its  intended  stock  market  float  of  EnergyAustralia.   EnergyAustralia  says  the  fall  in  wholesale  electricity  prices  has  been  caused,  perversely,  by  higher   electricity  prices  for  customers,  mostly  due  to  network  costs,  which  is  encouraging  those  consumers  to   put  on  more  solar  panels,  and  embrace  energy  efficiency.  Those  high  prices  are  also  contributing  to  the   decisions  of  some  energy-­‐intensive  industries  to  leave  Australia.  While  network  costs  are  moderating,   more  price  rises  can  be  expected  because  of  the  gas  boom.  Gas  still  supplies  around  10  per  cent  of  local   generation,  and  often  sets  the  marginal  cost  of  generation.   The  issue  of  over-­‐supply  and  falling  demand  is  one  of  the  principal  arguments  that  EnergyAustralia  and   others  are  using  to  argue  for  either  scrapping  or  diluting  the  RET.  Even  AGL  Energy,  previously  the   strongest  supporter  of  renewables  among  the  big  utilities,  is  backing  away  from  supporting  the  current   fixed  target  following  its  own  proposed  bargain  basement  purchase  of  two  NSW  coal-­‐fired  generators   (Bayswater  and  Liddell).   Mostly,  though,  these  positions  are  about  protecting  the  short  term  interests  of  ageing  generators  that   these  companies  have  been  able  to  buy  on  the  cheap  and  want  to  extract  maximum  value  from.  They  do   not  reflect  some  of  the  fundamental  changes  that  are  occurring  in  the  industry,  particularly  the  changes   in  consumer  behaviour  that  the  utilities  now  recognise  themselves.   EnergyAustralia  did  note  some  of  the  major  pressures  on  the  Australian  electricity  market:   -­‐  Consumer  behaviour  and  expectations  had  changed  as  a  result  of  the  sharp  spike  in  retail  prices,  and   the  growing  uptake  of  rooftop  solar  PV  and  energy  efficiency  products.   -­‐  The  uncertainty  around  carbon  pricing  and  other  policies  had  meant  it  was  impossible  to  enter  long-­‐ term  hedging  contracts,  which  reduced  the  ability  to  manage  risk.   -­‐  The  RET  had  forced  “subsidised”  renewable  capacity  into  an  over-­‐supplied  wholesale  market,  further   dampening  wholesale  prices.   -­‐  Domestic  gas  prices  were  pushing  gas-­‐fired  generators  out  of  the  market,  and  the  pursuit  of  more   “unconventional”  gas  to  meet  LNG  export  demand  was  also  adding  pressure  to  gas  prices.   -­‐  Coal  supply  has  become  more  challenging  as  costs  increase  and  legacy  contracts  roll-­‐off,  particularly  in   NSW.    This  would  add  costs  and  prices  to  coal-­‐fired  generators.   CEO  Richard  Lancaster  said  older  and  less  competitive  generators  would  soon  be  forced  out  of  the   market.  It  has  already  closed  one  of  two  units  at  Wallerawang  and  the  second  unit  will  be  closed  next   month.  Yallourn  this  year  was  hit  by  damage  and  outages  caused  by  the  flooding  of  the  adjacent  mine  by   the  Morwell  River.   The  write-­‐down  of  the  gas-­‐fired  generators  was  taken  after  the  company  noted  that  even  in  the  extreme   heatwaves  in  Victoria  and  South  Australia  in  January,  wholesale  prices  remained  relatively  low  despite   42     very  high  demand.  Because  the  cost  of  gas  generation  is  soaring  as  gas  prices  approach  export  parity,   thanks  to  the  LNG  export  boom,  it  had  no  choice  but  to  declare  the  value  of  its  gas-­‐fired  generators  to   be  impaired.   EnergyAustralia  said  the  overcapacity  had  been  created  because  demand  had  fallen  by  6%  since  2007   (against  all  expectations  of  an  increase),  while  generation  capacity  had  jumped  by  a  net  13%,  or   5,5000MW  –  courtesy  of  new  thermal  generation  and  the  RET.  This  situation  had  been  exacerbated  by  a   near  doubling  in  output  from  hydro  electric  generators.   “The  over-­‐supply  of  electricity  generation,  aggravated  by  a  rush  to  build  renewable  energy  projects  to   meet  Australia’s  Renewable  Energy  Target,  is  an  industry-­‐wide  issue.”  Lancaster  said  in  a  statement.  “It   may  take  some  years  for  the  supply  and  demand  situation  to  return  to  balance  and  this  will  require  the   closure  of  older,  less  competitive  generation  facilities.”   Still,  despite  the  write-­‐downs,  plunging  operating  profits  and  bottom  line  losses,  there  was  none  of  the   recent  talk  about  the  risk  of  blackouts  that  EnergyAustralia  has  deployed  in  the  Murdoch  press.   “Our  generating  assets  are  supported  by  brown  coal  reserves,  black  coal  supply  contracts  and   development  options,  long-­‐  term  gas  contracts  and  gas  storage  operations,”  the  company  said.  “There  is   considerable  strength  in  our  underlying  portfolio,  which  is  well  diversified  by  geography,  fuel  type  and   operational  mode.  This  allows  us  to  effectively  manage  opportunities  and  risks  across  our  portfolio  in   response  to  market  conditions.”   Interestingly,  EnergyAustralia  said  the  purchase  of  Mount  Piper  and  Wallerawang  power  stations  in   Australia  had  moved  the  company  “further  away”  from  its  ambitious  targets  to  reduce  its  carbon   intensity  by  2020.   Defending  Solar    Talk  107.3    3/11/2014   http://www.talk1073.com/home/news/185190-­‐Defending-­‐solar.html   (BATON  ROUGE)  Wednesday,  Louisiana's  Public  Service  Commission  will  once  again  take  a  vote  on  net   metering,  a  policy  that  is  used  in  43  different  states  and  ensures  that  solar  customers  that  return  excess   power  to  the  grid.  In  the  summer  of  2013,  the  PSC  halted  an  effort  to  end  net  metering  in  Louisiana.  At   Wednesday's  meeting,  they'll  face  a  similar  decision.   A  group  called  Tell  Utilities  Solar  won’t  be  Killed(TUSK)  is  fighting  Entergy's  efforts,  said  the  latest  poll   numbers  show  that  roughly  84%  of  Louisianans  approve  of  net  metering  and  believe  the  successful   policy  should  continue.  Brian  Miller  of  TUSK  told  Talk  107.3's  Kevin  and  Brian  that  Entergy  is  a   monopoly,  and  would  cripple  the  solar  industry  if  they  are  able  to  eliminate  net  metering  in  the  state.   Miller  explained  that  Hundreds  of  Louisianans  spoke  out  against  the  motion  last  year,  he  said  he  expects   the  push  back  this  year  is  shaping  up  to  be  even  stronger.         43     CMP  wants  Mainers  who  generate  their  own  power  to  pay  more    Portland  Press  Herald    Tux   Turkel    3/11/2014   http://www.pressherald.com/news/CMP_wants_Maine_self-­‐ generators_who_feed_grid_using_solar__wind_to_pay_more_.html   Central  Maine  Power  Co.  wants  customers  that  generate  some  of  their  own  electricity  from  renewable   sources  to  pay  higher  monthly  service  charges,  but  the  idea  is  being  challenged  as  an  attack  on  Maine’s   renewable-­‐energy  industry.   CMP  says  its  plan  would  help  cover  the  overall  cost  of  service  while  keeping  such  customers  on  the  grid   even  if  they  don’t  need  power  all  the  time.  Advocates  of  solar  and  wind  power  say  the  so-­‐called  standby   charge  would  kill  the  economics  of  investing  in  renewable  generation  and  run  counter  to  the  state’s   policy  of  encouraging  renewable  energy  development.   The  charges  would  have  “a  devastating  impact”  on  colleges  that  are  committed  to  promoting   sustainability,  said  Laurie  Lachance,  president  of  Thomas  College  in  Waterville.   In  2012,  the  college  had  a  12,600-­‐square-­‐foot  solar-­‐electric  array  installed  on  its  athletic  center.  The   system  is  designed  to  supply  11  percent  of  the  school’s  electricity.  CMP’s  proposal  would  add  $38,000  to   the  college’s  bill  over  five  years,  a  56  percent  increase,  Lachance  said.   The  debate  is  part  of  a  rate  case  before  the  Maine  Public  Utilities  Commission.  The  case  centers  on  how   much  CMP  can  collect  in  a  five-­‐year  rate  plan  through  2019  to  cover  the  cost  of  distributing  electricity,   and  how  that  cost  will  be  divided  among  various  types  of  customers.   The  PUC  will  hold  public  hearings  in  the  case  at  7  p.m.  April  2  at  the  commission’s  headquarters  in   Hallowell  and  at  7  p.m.  April  3  at  the  University  of  Southern  Maine  in  Portland.  CMP  and  parties  to  the   case  have  filed  thousands  of  pages  of  testimony.   The  testimony  is  now  the  focus  of  closed-­‐door  meetings  in  which  the  parties  will  try  to  settle  key  points   and  reach  an  agreement  on  a  rate  plan.  Since  1995,  every  five-­‐year  rate  plan  approved  by  the  three-­‐ member  PUC  has  been  based  on  agreements  reached  in  such  settlement  talks.   PAYING  FOR  DISTRIBUTION  SERVICE   For  many  years,  CMP  customers  have  paid  for  service  based  on  the  amount  of  electricity  they  use.  But   overall  consumption  is  falling,  as  homes  and  businesses  become  more  efficient  and  growing  numbers  of   users  generate  some  of  their  own  power  with  solar  panels  and  small  wind  turbines.   About  1,000  of  CMP’s  customers  have  installed  renewable  power  units,  such  as  solar  arrays  or  wind   turbines.  The  customers  range  from  homeowners  to  large  institutions,  including  several  of  Maine’s   private  colleges.   When  those  customers  are  generating  power  from  their  own  energy  sources,  they’re  not  buying  it  from   another  supplier,  thereby  reducing  CMP’s  revenue.  CMP  wants  to  charge  those  customers  a  special  rate   to  reflect  the  fact  that  even  though  they  aren’t  buying  power  all  the  time,  they  expect  CMP  to  provide   them  with  reliable  distribution  service.   It’s  an  issue  in  other  states,  too,  as  power  companies  adapt  to  increasing  power  generation  “behind  the   meter,”  on-­‐site  by  small-­‐scale  producers.   44     “They  aren’t  reducing  their  dependence  on  us,”  said  CMP  spokesman  John  Carroll.  “They’re  just   reducing  their  dependence  on  grid-­‐supplied  electricity.”   That  position  has  struck  a  nerve  with  a  wide  range  of  customers,  including  companies  that  sell  and   install  wind  and  solar  equipment,  colleges  that  have  invested  in  solar,  wind  and  biomass  power  on  their   campuses,  and  ski  areas  that  buy  renewable  power.   CMP’s  proposal  is  discriminatory  and  would  stunt  the  growth  of  renewable  power  by  increasing  the  time   it  takes  to  repay  the  investment  in  solar-­‐electric  panels,  said  Fortunat  Mueller,  co-­‐founder  of  ReVision   Energy  in  Portland,  which  installed  Thomas  College’s  solar-­‐electric  array.  Every  customer  in  each  rate   class  should  pay  the  same  basic  charge  for  service,  he  said.   CMP’s  plan  is  especially  galling,  Mueller  said,  because  solar  customers,  on  average,  use  less  energy   during  periods  when  the  power  grid  is  under  the  most  stress  and  wholesale  prices  are  high.  The  classic   example  is  a  sunny  summer  day,  when  air  conditioners  are  running.  That’s  when  solar  panels  feed   excess  electricity  to  the  grid,  reducing  the  need  for  new,  expensive  transmission  lines.   Lachance,  who  filed  written  testimony  with  the  PUC  on  behalf  of  the  Maine  Independent  Colleges   Association,  said  Thomas  College  uses  the  most  electricity  on  a  cold  winter  afternoon,  not  in  the   summer.   “CMP’s  proposal  to  impose  a  standby  charge  based  upon  a  customer’s  individual  peak  bears  no   significant  relationship  to  the  likelihood  of  contribution  to  the  summer  peak,”  she  wrote.  “Although,   perhaps  obviously,  many  customers  have  significant  usage  at  the  time  of  system  peak,  many  do  not.  The   winter  peaking  nature  of  our  usage  is  a  clear  example  of  a  customer  situation  that  rebuts  CMP’s  basic   assumption.”   SLOWLY  RISING  CHARGES  PROPOSED   Since  1995,  CMP  has  operated  under  five-­‐year  alternative  rate  plans.  The  PUC  sets  annual  performance   targets  such  as  service  quality,  responsiveness  and  the  duration  of  power  outages.  CMP  is  rewarded   with  a  certain  level  of  revenue  when  it  performs  well,  and  can  be  penalized  for  falling  short.  In  recent   years,  CMP  has  met  or  exceeded  its  targets.   CMP  also  has  kept  distribution  charges  relatively  flat  over  the  past  decade.  But  when  the  current  rate   plan  was  being  developed  in  2007,  officials  assumed  electricity  sales  and  demand  would  grow  over  the   next  five  years.  The  deep  recession,  warmer  winters  and  other  factors  ruined  those  projections.  Instead,   sales  were  below  expectations  and  the  number  of  customers  hardly  grew.   To  make  a  profit  in  line  with  investor-­‐owned  utilities,  CMP  wants  to  add  $1.03  a  month  in  the  first  year   of  the  plan  to  the  distribution  share  of  an  average  home  customer’s  bill  of  $74.51.  The  numbers  would   rise  each  year,  adding  a  total  of  $7  a  month  in  2018.  That  proposal  is  unrelated  to  the  standby  charge  for   customers  that  generate  electricity.   The  increase  would  be  for  only  the  distribution  portion  of  the  bill.  Energy  costs,  which  are  tied  to  the   wholesale  price  of  natural  gas,  and  transmission  costs  make  up  roughly  two-­‐thirds  of  a  typical  residential   bill.   45     The  increase  would  fund  CMP’s  cost  of  complying  with  performance  targets,  such  as  limiting  the   duration  and  frequency  of  power  outages,  and  cover  capital  spending  such  as  replacing  poles,  and   maintenance  such  as  trimming  trees.  Those  are  typical  points  of  contention  in  a  rate  case.   It’s  unknown  whether  the  parties  in  the  settlement  talks  will  compromise  on  the  standby  charge,  which   would  roughly  double  the  basic  monthly  charge  for  self-­‐generators  by  2019.   Eric  Bryant,  who  is  involved  with  the  case  as  a  senior  counsel  in  the  Maine  Public  Advocate’s  Office,  said   the  parties  can’t  publicly  speculate  on  the  confidential  talks,  but  his  agency  opposes  the  charge.   “At  this  point,  we  don’t  like  the  standby  charge,”  he  said.  “But  at  some  time  in  the  future,  there  may  be   so  many  customers  that  own  generators  that  it  will  make  a  difference.”   Net  metering,  a  contentious  issue  for  solar  industry  across  US,  center  of  debate  in  Colorado     Associated  Press    Donna  Bryson    3/12/2014   http://www.therepublic.com/w/CO-­‐Net-­‐Metering   DENVER  —  When  Xcel  Energy  raised  questions  about  a  system  known  as  net  metering  that  helps   determine  the  credit  homeowners  get  from  utility  companies  for  putting  solar  panels  on  their  roofs,   regulators  found  the  issue  so  contentious  they  separated  it  from  a  review  of  the  renewable-­‐energy   policies  of  Colorado's  largest  utility.   On  Wednesday,  Colorado's  Public  Utilities  Commission  set  a  hearing  in  April  to  start  what  is  likely  to  be  a   protracted  process  of  addressing  questions  solar  proponents  fear  could  lead  to  changes  that  could  hurt   their  industry.   Although  most  states  have  net-­‐metering  policies,  the  practice  has  touched  off  debates  from  Vermont  to   Hawaii  that  could  have  a  profound  effect  on  renewable-­‐energy  policies  across  the  nation.   In  Golden,  near  Denver,  the  city  council  responded  to  possible  changes  in  Colorado's  net-­‐metering   policies  with  a  resolution  urging  regulators  "to  reject  efforts  by  Xcel  Energy  to  limit  net  metering."   In  a  joint  letter  to  state  officials,  Dow,  the  giant  chemical  company  that  also  sells  rooftop  solar  systems,   and  Florida-­‐based  home  developer  Lennar  said  potential  buyers  of  solar-­‐equipped  houses  in  Colorado   are  showing  hesitancy  because  of  concern  that  regulators  might  tinker  with  net  metering.   "The  reality  is  that  we'd  like  an  answer  as  soon  as  possible,"  David  Kaiserman,  whose  SunStreet  Energy   installs  solar  systems  in  Lennar  homes,  said  in  an  interview.  "But  we  don't  want  to  rush  and  get  the   wrong  answer."   Net-­‐metering  policies  across  the  U.S.  vary,  but  they  generally  allow  homeowners  with  solar  panels  on   their  roofs,  once  they  have  met  their  own  needs,  to  get  credit  from  utility  companies  for  energy  they  put   into  the  grid  to  be  sold  to  other  customers.  Many  homeowners  with  rooftop  solar  still  must  buy  energy   from  their  utility  companies,  and  they  also  pay  service  and  other  charges.  When  homeowners  have   surpluses,  the  credit  they  get  usually  goes  toward  their  overall  energy  bill.   Minneapolis-­‐based  Xcel,  which  has  1.3  million  residential  and  commercial  electric  and  gas  customers  in   Colorado,  says  net-­‐metering  customers  receive  a  10.5-­‐cent  credit  for  each  kilowatt  hour  they  put  on  the   grid,  but  the  company  values  the  benefit  to  the  grid  at  only  5  cents  a  kilowatt  hour.  The  solar  industry   has  challenged  Xcel's  figures.   46     Xcel  is  not  calling  for  changes  immediately,  saying  it  first  wants  to  make  clear  to  consumers  what  part  of   the  net-­‐metering  credit  reflects  the  value  of  the  energy  produced  and  what  part  should  be  seen  as  a   subsidy.  When  it  first  raised  the  issue  earlier  this  year,  Xcel  said  that  if  regulators  do  not  agree  to  that   accounting,  it  would  ask  to  drastically  reduce  the  amount  of  solar  energy  it  took  on  from  rooftop   producers  this  year.   Xcel  spokesman  Mark  Stutz  said  Wednesday  the  company  was  no  longer  proposing  a  reduction,  and  that   the  company  was  pleased  to  be  having  a  public  "discussion  about  what  we  consider  to  be  a  net-­‐ metering  incentive."   Jason  Keyes,  a  lawyer  who  represents  the  Interstate  Renewable  Energy  Council,  said  net-­‐metering   calculations  by  utility  companies  often  leave  out  factors  such  as  the  possibility  money  could  be  saved  by   relying  on  renewable  sources  instead  of  building  new  infrastructure.  The  council  he  represents   promotes  renewable  energy.   David  Owens,  executive  vice  president  of  the  Edison  Electric  Institute,  a  utility  industry  think  tank  and   lobbying  body,  acknowledges  that  utilities  benefit  by,  for  example,  avoiding  transmission  costs  to   homeowners  who  are  supplying  their  own  needs.   But  Owens  said  that  from  a  utility's  perspective,  it's  not  clear  that  rooftop  solar  producers  are  paying   their  fair  share  of  the  costs  of  maintaining  the  grid.  If  they  aren't,  he  said,  the  financial  burden  falls  on   customers  who  don't  have  solar  systems.  His  institute's  polling  has  shown  that  that  argument  resonates   with  rate-­‐payers,  he  said.   Solar  companies  accuse  traditional  utility  companies,  some  of  which  are  establishing  large  solar  projects   of  their  own,  of  wanting  to  squash  an  innovative,  agile  competitor.  Rooftop  solar  is  a  small  player  now,   but  it  is  growing  rapidly.   Colorado  voters  were  the  first  in  the  nation  to  adopt  their  own  renewable-­‐energy  standards  after   passing  a  citizens  initiative  in  2004.   Denver  homeowner  Barbara  Donachy,  testifying  at  a  utilities  commission  hearing  earlier  this  year  that   focused  on  net  metering,  said  shade  and  other  factors  make  her  own  home  unsuitable  for  solar.  But  she   supports  efforts  to  promote  solar  on  her  neighbors'  roofs.   "I  never  thought  I  would  be  on  the  same  side  as  Dow,"  she  said  later  in  an  interview.  Decades  ago,   Donachy  protested  against  Dow  because  the  company  managed  a  bomb  factory  near  Boulder  that   became  a  notorious  hazardous  waste  site.   On  solar,  Dow's  letter  to  the  governor  shows  "people  do  have  vested  economic  interests,"  she  said.  But   "if  I  paid  more  on  my  utility  bill  and  I  knew  that  was  going  to  lower  the  carbon  footprint,  I  would  do  it."   Minn.  regulators  approve  solar  tariff  formula    Jeffrey  Tomich  E&E  News    3/13/2014   http://www.eenews.net/energywire/stories/1059996066/search?keyword=Minnesota   Regulators  in  Minnesota  yesterday  put  the  state  on  a  path  to  become  the  first  in  the  nation  to  design  a   specific  utility  rate  for  solar  energy  generated  by  homeowners  and  businesses.   47     The  Minnesota  Public  Utilities  Commission  voted  3-­‐2  to  approve  the  "value  of  solar  tariff"  formula  after   more  than  four  hours  of  debate  that  covered  a  wide  variety  of  complex  issues,  from  compliance  with   federal  utility  law  to  tax  consequences  to  calculating  the  value  of  avoided  carbon  dioxide  emissions.   The  formula  approved  by  the  PUC  represents  a  method  for  computing  a  per  kilowatt-­‐hour  rate  meant  to   accurately  assign  a  value  of  customer-­‐generated  solar  energy  to  utilities,  their  customers  and  society.   The  case  has  piqued  interest  among  utilities  and  regulators  across  the  country  because  it  represents  an   alternative  to  controversial  state  net  metering  policies,  which  credit  customers  for  excess  energy  put   onto  the  grid,  usually  at  retail  electric  rates.   Net  metering,  which  exists  in  43  states  and  the  District  of  Columbia,  has  become  a  hot  topic  in  many   other  states  and  a  focus  of  utilities,  which  argue  that  such  policies  don't  adequately  compensate  them   for  fixed  costs.   The  methodology  approved  yesterday  may  represent  a  solution.  But  it's  just  one  step  in  a  longer  process   before  a  solar  tariff  can  be  applied.   Importantly,  the  value  of  a  solar  tariff  is  voluntary,  and  it  is  too  soon  to  tell  whether  Minnesota  utilities   will  embrace  solar  rates,  which  would  likely  be  a  higher  rate  than  current  net  metering  rates.   The  Minnesota  Legislature  passed  a  law  last  spring  that  required  the  Department  of  Commerce  to   propose  a  value  of  solar  methodology.  By  law,  the  PUC  could  adopt  it,  reject  it  or  propose  modifications   that  would  require  the  department's  consent.   A  value-­‐of-­‐solar  rate  is  intended  to  as  accurately  as  possible  peg  the  net  benefit  of  distributed  solar   energy  to  utilities,  customers  and  society,  not  encourage  solar  investment  over  the  25-­‐year  assumed  life   span  of  a  customer's  solar  energy  system  (EnergyWire,  March  11).   But  it  is  not  meant  by  itself  to  encourage  solar  development,  Bill  Grant,  deputy  commissioner  for  energy   at  the  Commerce  Department,  told  the  PUC.   "There  are  things  value  of  solar  is,  and  things  that  value  of  solar  isn't,"  he  said.  "What  it  isn't  is  an   incentive  for  solar  PV."   Social  cost  of  carbon   The  proposed  solar  tariff  methodology  was  the  product  of  months  of  dialogue  among  the  state,  utilities   and  solar  energy  advocates.  The  formula  was  designed  to  be  a  sum  of  all  the  attributes  of  distributed   solar  energy,  including  cost  of  power  plant  fuel  not  burned,  unused  transmission  and  distribution   capacity  and  avoided  emissions  of  carbon  dioxide  and  other  pollutants.   Much  of  the  discussion  yesterday  focused  on  the  value  assigned  to  carbon  emissions,  which  is  taken   from  the  social-­‐cost-­‐of-­‐carbon  calculation  developed  by  a  federal  interagency  working  group.  The  cost-­‐ of-­‐carbon  figure,  which  has  already  been  used  by  U.S.  EPA  and  the  Department  of  Energy  in  federal   rulemakings,  estimates  the  incremental  cost  of  a  ton  of  carbon  dioxide  in  property  damage,  health  care   costs  and  lost  agricultural  output.   48     In  comments  filed  with  the  PUC,  three  Minnesota  utilities  disagreed  with  the  proposal  to  plug  in  the   federal  social  cost  of  carbon  figure  of  $37  per  ton  of  CO2.  They  reiterated  their  disagreement  yesterday.   So  did  Commissioner  David  Boyd,  who  cast  one  of  two  dissenting  votes.   "For  me  this  is  a  deal-­‐breaker,"  Boyd  said  early  on  during  the  hearing.  "I  don't  think  that  this  is  the  right   procedural  path  to  follow."   'Perfect  indifference'  sought   Discussions  also  focused  on  the  appropriate  method  for  calculating  utilities'  avoided  fuel  costs.   The  methodology  approved  by  the  PUC  assumes  the  marginal  unit  of  energy  displaced  by  customer-­‐ generated  solar  energy  will  be  gas-­‐fired  generation  with  avoided  fuel  costs  based  on  natural  gas  futures   traded  on  the  New  York  Mercantile  Exchange.  Because  NYMEX  gas  futures  extend  out  only  12  years,  the   solar  tariff  would  use  the  consumer  price  index  to  determine  appropriate  avoided  fuel  costs  for  years  13   through  25.   Commissioner  Betsy  Wergin,  the  other  commission  member  who  voted  against  the  proposed   methodology,  also  raised  the  issue  of  cross-­‐subsidization  -­‐-­‐  a  current  criticism  by  the  utility  industry  of   net  metering  policies.   Wergin  said  she's  concerned  that  a  value-­‐of-­‐solar  rate  would  benefit  wealthier  customers  who  could   better  afford  solar  energy  systems,  at  the  expense  of  low-­‐income  consumers.   "I  see  a  cross-­‐subsidy  happening  within  a  rate  class,"  Wergin  said.   But  if  done  right,  the  value-­‐of-­‐solar  tariff  would  void  that  problem  by  finding  the  exact  point  where   utilities  and  consumers  are  indifferent  to  whether  a  utility  customer  puts  a  solar  array  on  his  or  her  roof,   Grant  said.   "The  goal  of  the  tariff,"  he  said,  "is  to  find  that  point  of  perfect  indifference."   Utility  regulator  fields  solar  complaints    Arizona  Republic    Ryan  Randazzo    3/13/2014   http://www.azcentral.com/story/money/business/2014/03/13/utility-­‐regulator-­‐fields-­‐solar-­‐ complaints/6372529/   The  state's  top  utility  regulator  is  getting  complaints  from  Tucson  customers  of  SolarCity  Corp.  that  the   solar  leasing  company  is  misleading  them  regarding  the  state  rules  for  hooking  up  a  solar  array,  he  said   Wednesday.   Arizona  Corporation  Commission  Chairman  Bob  Stump  wrote  a  letter  to  SolarCity  CEO  Lyndon  Rive  on   Wednesday  asking  him  to  address  the  concerns.   "This  is  an  issue  of  consumer  protection  and  solar  installer  transparency,"  Stump  said  Wednesday.   Stump  specifically  asked  Rive  to  describe  the  types  of  statements  SolarCity's  sales  representatives  make,   the  type  of  training  they  get,  and  what  kind  of  monitoring  the  company  undertakes  to  ensure  they   provide  "accurate  and  balanced  information."   49     He  said  he  is  concerned  about  statements  regarding  net  metering,  the  arrangement  whereby  utilities   give  customers  credit  for  the  electricity  they  send  to  the  power  grid  when  their  homes  are  not  using  it.   The  credit  they  get  for  excess  generation  helps  offset  the  power  they  draw  from  the  utility  at  night.   SolarCity  spent  most  of  2013  debating  Arizona  Public  Service  Co.  over  net  metering.  The  utility   suggested  solar  net-­‐metered  customers  pay  $50  to  $100  a  month  for  their  use  of  the  utility  grid.  The  five   regulators  settled  on  a  fee  of  about  $5  a  month  in  November  for  customers  who  install  solar  after  the   first  of  this  year.   The  decision  "grandfathered"  in  the  nearly  20,000  APS  customers  that  already  installed  solar,  and   Stump's  letter  said  he  is  concerned  that  SolarCity  is  incorrectly  telling  customers  that  the  rules  can't   change.   Stump  said  several  Tucson  Electric  Power  customers  have  complained  that  they  were  told  by  SolarCity   that  if  they  install  solar,  they  will  be  grandfathered  in.  But  then  those  customers  must  sign  an   interconnection  agreement  with  TEP,  which  states  that  the  utility's  rates  and  tariffs  are  subject  to   change.   TEP  began  adding  the  language  to  its  interconnection  agreements  after  the  commission  required  such   statements  in  the  APS  agreements.   "They  are  confused  and  they  are  angry,  believing  that  TEP  is  at  fault,"  Stump  said.  "We  need  to  ensure,   in  my  view,  that  the  representations  and  statements  are  indeed  accurate  on  the  part  of  the  sale   representatives."   Stump  said  any  decision  by  the  commission  is  subject  to  review,  especially  for  TEP  customers,  which  will   face  a  separate  decision  on  regarding  net  metering.   "In  TEP's  next  rate  case,  or  in  some  other  subsequent  TEP  proceeding  concerning  net  metering  or  rate   design,  grandfathering  is  one  possible  outcome,"  Stump  said  in  the  letter.  "However,  it  is  presumptuous   to  tell  customers  that  such  an  outcome  is  certain."   Stump  said  he  will  place  the  item  on  the  agenda  of  an  upcoming  commission  meeting  to  discuss  his   concerns  with  fellow  commissioners.  He  asked  Rive  to  respond  to  his  questions  by  March  31.   Rive  is  the  cousin  of  Tesla  Motors  CEO  Elon  Musk,  who  is  currently  deciding  whether  to  locate  a  $4   billion  to  $5  billion  battery  factory  in  Arizona,  Nevada,  New  Mexico  or  Texas.   SolarCity  says  accusations  political    Arizona  Republic    Ryan  Randazzo    3/14/2014   http://www.azcentral.com/story/money/business/2014/03/14/solarcity-­‐says-­‐accusations-­‐ political/6420853/   SolarCity  Corp.  responded  to  accusations  from  Arizona's  top  utility  regulator  saying  the  company  is   truthful  in  its  advertising  and  battling  utilities  that  see  solar  as  a  competitive  threat.   Arizona  Corporation  Commission  Chairman  Bob  Stump  wrote  a  letter  to  SolarCity  CEO  Lyndon  Rive  on   Wednesday  asking  about  statements  SolarCity's  sales  representatives  make  and  what  kind  of  monitoring   the  company  undertakes  to  ensure  they  provide  accurate  information.   50     Stump  said  Tucson  Electric  Power  customers  were  complaining  about  conflicting  information  from   SolarCity  and  the  utility.   "We  believe  that  this  allegation  is  politically  motivated,"  said  Will  Craven,  senior  communications   manager  for  SolarCity.  "Utilities  are  trying  to  disrupt  straightforward  private  business  transactions   between  solar  companies  and  Arizona  residents  by  planting  seeds  of  doubt  in  the  minds  of  ratepayers   wherever  they  can,  simply  in  order  to  harm  the  rooftop  solar  industry."   Stump  said  he  is  concerned  about  statements  regarding  net  metering,  the  arrangement  whereby   utilities  give  customers  credit  for  the  electricity  they  send  to  the  power  grid  when  their  homes  are  not   using  it.  The  credit  they  get  for  excess  generation  helps  offset  the  power  they  draw  from  the  utility  at   night,  lowering  their  bills.   SolarCity  spent  most  of  2013  debating  Arizona  Public  Service  Co.  over  net  metering.  Regulators  in   November  decided  to  add  a  fee  that  averages  $5  a  month  to  new  solar  customers.  The  commissioners   decided  to  "grandfather"  the  nearly  20,000  APS  customers  that  already  installed  solar,  sparing  them  the   fee.   Stump's  letter  said  he  is  concerned  that  SolarCity  is  incorrectly  telling  customers  that  the  rules  can't   change.  Stump  said  several  TEP  customers  have  complained  that  they  were  told  by  SolarCity  that  if  they   install  solar,  they  will  be  grandfathered  in.  But  then  those  customers  must  sign  an  interconnection   agreement  with  TEP,  which  states  that  the  utility's  rates  and  tariffs  are  subject  to  change.   Stump  said  any  decision  by  the  commission  is  subject  to  review,  especially  for  TEP  customers,  who  will   face  a  separate  decision  on  net  metering.   "It  is  presumptuous  to  tell  customers  that  such  an  outcome  is  certain,"  he  said.   Craven  said  the  only  reason  the  rules  will  change  is  if  TEP,  APS  or  other  utilities  seek  such  changes,  and   that  what  SolarCity  tells  customers  is  correct.   "We  are  confident  that  the  information  we  provide  to  customers  is  accurate,"  Craven  said.  "In  sales   conversations  we  note  that  utility  regulations  and  prices  are  subject  to  change,  but  to  date  no  rooftop   solar  customer  in  the  nation  has  failed  to  be  grandfathered  following  changes  to  net  metering  —  in   every  case  the  discussion  is  not  whether  to  grandfather,  but  how  much  to  grandfather  ...  To  the  extent   that  solar  customers  are  at  risk  of  changes,  it  is  due  entirely  to  the  desire  and  willingness  of  utilities  to   put  them  at  risk."   The  dustup  with  SolarCity's  Rive  comes  as  Rive's  cousin,  Elon  Musk,  is  considering  where  to  locate  a  $4   billion  to  $5  billion  battery  factory  for  his  company,  Tesla  Motors.  Arizona  is  one  of  four  states  in  the   running  for  the  factory.   Solar  PV  to  replace  coal  as  “incumbent”  technology    RenewEconomy    Giles  Parkinson     3/17/2014     http://reneweconomy.com.au/2014/solar-­‐pv-­‐replace-­‐coal-­‐incumbent-­‐technology-­‐38095   Australia  is  embarking  on  a  radical  transformation  of  its  electricity  system  that  will  see  solar  PV   transition  from  being  “disruptive”  technology  to  the  “incumbent”  technology,  displacing  coal  and   sparking  a  radical  change  in  the  way  that  electricity  is  provided.   51     This  is  the  assessment  from  Clean  Energy  Council  CEO  David  Green  (pictured),  who  in  a  presentation  last   week  said  generation  will  move  from  its  traditional  place  at  the  point  of  supply  to  at  or  near  the  point  of   use;  the  primary  role  of  the  grid  will  be  converted  to  that  of  a  back-­‐up  “battery”;  and  consumers  will   play  a  key  role  in  a  more  competitive  market.   Green  told  a  Davos  Connection  conference  on  infrastructure  last  week  that  the  core  logic  behind  having   large  scale  generation  plants  close  to  their  fuel  source  (coal  or  hydro)  was  being  challenged  by  shifts  in   the  basic  cost  parameters  of  many  sources  of  energy  allow  generation  (mostly  solar)  to  be  built  closer  to   where  it  is  used.   It  was  clear,  he  said,  that  solar  PV  has  been  taken  up  more  rapidly  in  lower-­‐income  suburbs  than  higher   income  –  because  of  the  attraction  for  lower-­‐income  households  to  get  a  lower,  fixed  rate  of  electricity.   Now,  new  financing  models  –  such  as  leasing  and  community  ownership,  as  well  as  models  for  renters  –   was  likely  to  spark  a  third  wave  of  investment  in  solar  PV.   “Further  innovation  in  the  business  models  will  potentially  unleash  still  more  waves  of  investment  until   solar  PV  has  fully  transitioned  from  disruptive  technology  to  the  new  incumbent  technology,”  Green   says.  (You  can  read  the  whole  presentation  here)   “In  a  similar  way  we  are  witnessing  the  battery  energy  storage  market  emerge.  Like  the  solar  PV  market,   it  is  initially  focused  on  early  adopters,  but  spreading  quickly  as  the  economic  case  for  investment   becomes  favorable.”   Green  says  it  is  not  yet  clear  whether  the  spread  of  low-­‐cost  energy  storage  will  result  in  households   disconnecting  from  the  distribution  grid  entirely  –  seen  as  the  most  radical  vision  for  a  decentralized   energy  sector,  and  one  that  CSIRO  entertained  in  its  Future  Grids  analysis,  and  which  has  been  raised  by   utilities  in  the  US  and  elsewhere  as  either  a  great  opportunity,  or  a  horrendous  threat.   “For  the  moment  it  would  seem  more  likely  that  households  will  stay  on  the  grid,”  Green  says.  “But  that   the  role  of  grid-­‐supplied  power  will  be  inverted,  from  the  primary  source  of  power  (supplemented  by   embedded  generation  like  solar  PV)  to  a  safety  net  supplier  of  last  resort,  with  embedded  generation   being  the  primary  source  of  power.”   “Even  this  more  moderate  vision  would  require  a  fundamental  rethink  in  the  financial  model  for   distribution  network  services  businesses.”   Those  comments  fit  in  with  the  scenarios  painted  by  the  CSIRO,  which  suggested  that  customers  were   more  likely  to  remain  on  the  grid  if  the  utilities  adapted  their  business  models.  But  it  also  made  clear   that  a  third  or  more  customers  could  simply  leave  the  grid  if  the  utilities  failed  to  act.   Green  said  it  was  clear  that  the  pace  of  innovation  in  distributed  generation  technology,  the  demand  by   consumers  for  greater  involvement  in,  and  control  of,  the  ownership  and  usage  of  electricity,  and  the   international  drive  to  address  climate  change  are  all  promoting  real  and  fundamental  change.   “A  ‘new  normal’  has  not  yet  been  established  but  all  the  indications  are  that  the  emerging  model  will   lower  the  cost  of  new  infrastructure,  improve  competition  and  greatly  improve  the  degree  to  which   existing  infrastructure  is  used  efficiently.”   He  noted  that  while  many  incumbents  saw  distributed  generation  as  a  niche,  it  was  moving  at  such  a   speed  that  it  was  simply  a  matter  of  innovation  and  to  what  extent  the  “new  entrants  of  today”are   allowed  to  become  the  incumbents  of  tomorrow.   52     Green  says  that  Australia  has  managed  to  shift  around  13  per  cent  of  its  electricity  generation  to  more   decentralised  renewable  sources  so  far,  with  much  of  this  also  coming  in  the  form  of  what  he  calls   “modular”  wind  farms  (they  can  be  built  with  just  a  few  turbines  or  more  than  a  hundred).   But  because  this  and  solar  are  disruptive,  it  will  be  fiercely  contested  by  those  who  benefit  from  the   traditional  system  –  the  network  operators  and  the  fossil  fuel  producers.   “They  will  have  an  obvious  tendency  to  resist  change,”  he  says.  “Others  will  embrace  it.  It  is  potentially   an  exciting  and  dynamic  time  for  the  energy  sector  to  drive  innovation  and  reach  for  the  future.”   RenewEconomy’s  Take:  Green  is  right,  and  this  speech  is  welcome.  It  is  about  time  that  the  clean   energy  industry  articulates  such  a  vision  for  the  future  in  a  co-­‐ordinated  and  vigorous  manner.  There  is   much  at  stake.   As  in  the  US,  there  is  a  mixture  between  those  who  see  opportunity,  and  those  who  see  only  threat.   Right  now,  it  appears,  it  is  the  latter  dominating  policy  settings.  The  utilities  are  resisting  change,  and  so   are  the  government  owners.   The  carbon  price  is  being  wound  back,  the  renewable  energy  target  is  under  threat,  and  energy   efficiency  schemes  are  also  being  wound  back.  In  the  meantime,  tariffs  and  regulations  appear  ready  to   be  deployed  to  slow  down  the  uptake  of  the  solar  and  solar  storage  and  other  technologies.  It  should  be   a  quite  battle.   Tentative  deal  reached  on  solar  power  in  SC    The  State    Sammy  Fretwell    3/19/2014   http://www.thestate.com/2014/03/19/3336444/tentative-­‐deal-­‐reached-­‐on-­‐solar.html   COLUMBIA,  SC  —  Solar  energy  boosters  and  utility  representatives  say  they  have  broken  a  stalemate   over  expanding  the  use  of  sun  power  in  South  Carolina  after  years  of  disagreement.   The  tentative  deal,  which  needs  approval  from  the  Legislature,  would  make  it  easier  for  homeowners   and  businesses  to  acquire  the  use  of  solar  panels  that  could  save  money  on  monthly  power  bills.   Caps  on  solar  power  also  would  be  loosened  so  that  businesses  and  other  non-­‐residential  entities  could   widen  their  use  of  energy  from  the  sun,  according  to  a  bill  discussed  Wednesday  with  state  senators  in   Columbia.   Furman  University  would  be  among  the  winners.  The  Greenville  college,  known  for  its  earth-­‐friendly   initiatives,  has  been  blocked  from  expanding  its  solar  energy  use  because  of  a  restrictive  state  cap.  A   looser  cap  would  change  that.   The  deal  doesn’t  resolve  all  issues  –  including  how  the  state  specifically  could  help  non-­‐profit  groups,   schools  and  churches  afford  the  upfront  costs  of  acquiring  solar  panels.  The  proposal  also  needs  to  be   fully  vetted  by  others,  including  the  state  Office  of  Regulatory  Staff.   But  environmentalists  and  power  company  representatives  said  the  agreement  is  a  substantial  leap   ahead.   During  a  Senate  subcommittee  meeting  packed  with  business  interests  and  environmentalists,  no  one   spoke  against  the  agreement  when  asked  by  Sen.  Luke  Rankin,  R-­‐Horry.   53     “An  enormous  amount  of  work  went  into  getting  to  a  place  of  compromise,”  said  Hamilton  Davis,  who   heads  the  energy  division  for  the  S.C.  Coastal  Conservation  League.  “It’s  not  ideal,  but  I  think  it’s  a  good   product  and  something  that  is  worthy  of  the  Senate’s  consideration.”   Chuck  Claunch,  a  lobbyist  for  Duke  Energy,  said  after  the  meeting  that  utilities  like  the  compromise   discussed  Wednesday.  So  do  the  state’s  electric  cooperatives,  co-­‐op  representative  John  Frick  said.   “From  where  we  were  last  (year)  to  where  we  are  now,  is  a  pretty  big  accomplishment,”  said  Sen.  Greg   Gregory,  a  Lancaster  Republican  who  has  pushed  to  make  solar  easier  for  people  to  use  and  afford.   In  South  Carolina,  a  groundswell  of  support  for  solar  has  helped  make  the  use  of  sun  power  more   attractive,  observers  said  Wednesday.  Utilities,  such  as  SCE&G  and  Santee  Cooper,  have  even  begun  to   develop  solar  farms.   If  the  bill  goes  through,  Davis  predicted  it  could  increase  South  Carolina’s  use  of  solar  sharply.  The  state   now  has  about  7  megawatts  of  installed  solar  capacity,  one  of  the  lowest  amounts  in  the  country.   A  key  part  of  the  compromise  focuses  on  how  solar  companies  would  provide  the  panels  to   homeowners  at  affordable  rates.   Instead  of  allowing  the  sale  of  power  directly  to  customers  from  rooftop  solar  panels,  as  proposed  in  a   bill  last  year,  companies  could  lease  the  panels  to  homeowners  or  businesses.  Utilities  opposed  direct   sales,  worrying  that  it  could  set  a  precedent  that  would  allow  unregulated  companies  to  compete   directly  with  them,  observers  said.   Davis  said  the  leasing  arrangement  provides  the  same  benefit  to  private  homeowners  and  businesses   because  leases  would  make  the  upfront  panel  costs  more  reasonable.  But  for  tax  reasons,  leasing   essentially  shuts  out  non-­‐profit  groups,  schools  and  churches,  he  and  others  said.   Part  of  the  compromise  is  to  have  utilities  develop  programs  to  help  non-­‐profits,  churches  and  schools   afford  the  panels.   “There  wasn’t  an  entity  at  the  table  that  doesn’t  want  to  help  fix  this  issue,”  Frick  said.   The  legislation,  which  would  amend  an  existing  solar  bill  that  allows  third-­‐party  sales,  is  expected  to  be   voted  on  as  early  as  next  week  by  the  subcommittee.   According  to  the  deal  discussed  Wednesday,  the  state  would:   •  Raise  a  state  limit  on  the  use  of  solar  power,  which  is  now  capped  at  100  kilowatts,  to  1  megawatt  for   non-­‐residential  use.   •  Set  a  statewide  limit  of  2  percent  for  the  use  of  solar  power  for  those  involved  in  net-­‐metering   programs.   •  Encourage  utilities  to  increase  the  use  of  solar  power  they  use  in  their  mix  of  energy  sources.   54     German  Energy  Push  Runs  into  Problems    New  York  Times    Melissa  Eddy    3/20/2014   http://www.nytimes.com/2014/03/20/business/energy-­‐environment/german-­‐energy-­‐push-­‐runs-­‐into-­‐ problems.html?ref=energy-­‐ environment&_r=1&version=meter+at+6®ion=FixedCenter&pgtype=article&priority=true&module= RegiWall-­‐Regi&action=click   BERLIN  —  It  is  Germany’s  national  goal:  to  have  the  bulk  of  its  energy  supplied  by  renewable  power   sources  by  2050,  without  endangering  the  country’s  powerful  industrial  sector  or  an  export-­‐based   economy  that  is  the  envy  of  other  Europeans.   This  energy  push,  known  as  the  Energiewende,  or  energy  transformation,  took  on  new  urgency  with  the   decision  to  speed  up  the  phasing  out  of  nuclear  power  after  the  2011  Fukushima  disaster.   But  the  question  of  whether  Germany  can  meet  its  2050  goal  has  been  hotly  debated.  And  the  issue  has   taken  on  added  importance  with  the  Russia-­‐Ukraine  crisis  threatening  Germany’s  largest  single  source  of   natural  gas.   Chancellor  Angela  Merkel’s  government  plans  to  revamp  the  energy  law  to  focus  on  wind  turbine  parks   and  solar  energy  as  the  most  cost-­‐effective  renewable  sources,  in  the  hope  of  reining  in  runaway   electricity  prices.   But  international  energy  experts,  who  recently  completed  a  study  of  the  German  energy  sector,  say  the   country  cannot  meet  its  future  needs  solely  through  renewable  sources.  They  say  the  plan  must  also   include  a  climate-­‐friendly  —  even  if  not  renewable  —  option,  like  domestic  natural  gas.   Energy  will  be  on  the  agenda  when  European  Union  leaders  convene  in  Brussels  on  Thursday,  with   member  countries’  heavy  dependence  on  Russian  gas  almost  certain  to  galvanize  the  discussion.   Leaders  are  also  to  discuss  recent  changes  to  the  bloc’s  climate  agenda.  Germany  hopes  that  a  deal  can   be  reached  to  end  a  dispute  with  the  union  over  Berlin’s  exemption  of  some  energy-­‐intensive  industries   from  the  country’s  environmental  surcharges.   The  German  daily  Frankfurter  Allgemeine  Zeitung  reported  this  week  that  a  proposal  had  been  floated   that  would  allow  Berlin  to  grant  surcharge  reductions  for  companies  in  approximately  65  sectors.   During  a  visit  to  Berlin  last  month,  Joaquín  Almunia,  the  European  Union’s  competition  commissioner,   said  that  aluminum  and  steel  industries  would  be  among  those  exempted.  Experts  say  they  expect  the   industrial  gas,  cement  and  electronic  components  sectors  also  to  be  included.   About  11  percent  of  Germany’s  energy  is  provided  by  natural  gas,  of  which  35  percent  comes  from   Russia.  Despite  the  German  government’s  assurances  that  reserves  of  natural  gas  held  in  storage  tanks   are  sufficient  to  ensure  continued  supply,  there  are  fears  of  shortages  should  Moscow  decide  to   retaliate  to  Western  sanctions  by  reducing  the  flow  of  natural  gas  to  the  West.   Germany  has  almost  no  natural  gas  of  its  own  —  at  least  not  gas  that  can  be  extracted  through   conventional  drilling  techniques.   55     It  does  have  potentially  promising  reserves  of  gas  in  shale  rock.  But  extraction  of  that  shale  gas  through   the  technique  known  as  hydraulic  fracturing,  or  fracking,  does  not  feature  in  Germany’s  current  plans.   Germany,  by  2030,  would  be  able  to  produce  the  equivalent  of  25  percent  of  the  natural  gas  that  it   currently  consumes,  if  it  were  to  tap  shale  resources  within  the  country,  according  to  the  international   study  conducted  by  IHS  Energy,  a  research  and  consulting  firm.  That  could  rise  to  35  percent,  equivalent   to  what  Germany  currently  imports  from  Russia,  in  subsequent  years,  IHS  predicted.   But  Berlin’s  firm  belief  remains  that  only  by  uncoupling  from  a  dependence  on  gas  and  other  fossil  fuels   through  the  expansion  of  power  generated  by  renewable  sources  can  Germany  secure  its  energy  future.   “The  energy  transformation  in  Germany  will  be  carried  out  by  two  main  sources  —  those  are  wind  and   solar,”  Rainer  Baake,  a  deputy  energy  minister,  said  this  week.   The  unexpected  drop  in  global  energy  prices  through  the  emergence  of  abundant,  low-­‐cost  natural  gas   in  the  United  States  has  posed  a  threat  to  the  energy  transformation,  according  to  a  study  by  the  IHS   research  group  presented  in  Berlin  this  week.   “There  has  been  a  kind  of  waking  up  to  the  fact  that  the  premises  of  the  Energiewende,  however  well-­‐ intentioned  they  are,  no  longer  hold  because  the  world  has  changed,”  said  Daniel  Yergin,  an  energy   industry  analyst  and  historian  who  helped  carry  out  the  study.   The  Renewable  Energy  Act  in  Germany  has  been  amended  several  times  over  the  last  13  years.  The   latest  changes  are  to  be  voted  on  by  Parliament  before  its  summer  recess,  and  crucial  points  have   already  been  approved  by  Ms.  Merkel’s  government.  Revisions  to  the  law  concentrate  on  managing  the   expansion  of  renewable  sources  by  focusing  on  technologies  that  have  proved  to  be  the  most  cost-­‐ effective  over  the  last  decade.   These  changes  reflect  lessons  learned  since  Germany  first  decided  to  phase  out  its  nuclear  reactors  in   favor  of  energy  generated  by  renewable  resources,  which  until  now  have  all  been  promoted  equally   through  government  subsidies.   Berlin’s  nearer-­‐term  goals  have  not  changed,  aiming  for  40  to  45  percent  of  all  energy  to  come  from   renewable  sources  by  2025,  rising  to  55  to  60  percent  by  2035.  But  the  mix  of  technologies  has  been   revised,  with  the  focus  now  on  large  onshore  wind  parks  and  solar  energy  farms.   “With  the  Renewable  Energies  Act  that  we  created  in  2000,  we  financed  a  learning  curve  that  was   expensive,”  said  Mr.  Baake,  the  deputy  energy  minister,  who  is  considered  by  some  to  be  the   grandfather  of  Germany’s  energy  transition.  “But  the  good  news  is  that  we  have  learned  in  only  13  years   to  produce  electricity  with  wind  power  and  large  solar  facilities  at  the  same  price  as  if  we  were  to  build   new  coal  or  gas  power  stations,”  he  added.   In  Britain,  the  government  is  also  responding  to  complaints  from  its  businesses  and  consumers  about   the  cost  of  green  taxes  and  other  environmental  measures.  In  a  parliamentary  speech  on  Wednesday   outlining  his  budget  for  2014  to  2015,  the  chancellor  of  the  Exchequer,  George  Osborne,  noted  that   industrial  energy  prices  in  the  United  States  were  half  those  of  Britain.  “We  need  to  cut  our  energy   costs,”  he  said.   56     Mr.  Osborne  said  he  would  take  measures  to  reduce  energy  bills,  which  would  include  capping  Britain’s   tax  on  carbon  dioxide  at  18  pounds,  or  about  $30,  a  ton  —  although  not  until  after  next  year’s  national   elections.  The  tax,  which  is  now  about  £5  a  ton,  would  otherwise  have  increased  to  about  £36  a  ton  by   the  end  of  the  decade,  analysts  say.  The  freeze  would  cut  a  midsize  manufacturer’s  electric  bill  by   £50,000  a  year  and  a  household’s  by  £15  annually,  Mr.  Osborne  said.   Electricity  prices  in  Germany  are  already  among  the  highest  in  the  world.  The  price  of  industrial   electricity  has  risen  about  37  percent  since  2005,  according  to  the  Federation  of  German  Industries.  The   price  in  the  United  States  has  fallen  by  4  percent  over  about  the  same  time.   The  rise  in  energy  prices  has  already  cost  Germany  $52  billion  in  net  exports  and  could  prove  even  more   damaging  if  steps  are  not  taken  to  keep  prices  in  check,  according  to  the  IHS  study.  IHS  asserts  that   adding  domestic  shale  gas  into  the  mix  would  keep  prices  down.   A  decision  by  the  European  Commission  this  year  made  it  possible  for  member  countries  like  Britain  and   Poland  which  are  interested  in  pursuing  their  shale  gas  reserves  to  do  so.   The  Federal  Environmental  Agency  in  Germany  is  conducting  its  own  study  into  the  impact  that  tapping   those  gas  reserves  through  fracking  would  have  on  the  environment.  The  study  is  to  be  completed  in   May.  But  political  support  for  the  practice  all  but  died  last  June,  when  the  chancellor’s  center-­‐right   government  withdrew  a  bill  that  would  have  furthered  progress  on  the  use  of  fracking.  Thus  far,  there   has  been  no  talk  in  Berlin  of  seeking  to  revive  that  proposal.   Stanley  Reed  contributed  reporting  from  London.   Correction:  March  20,  2014       An  earlier  version  of  this  article  misspelled  the  name  of  the  nuclear  power  plant  disaster  in  2011.  It  was   Fukushima,  not  Fukishima.                     57     Policy Resolutions Resolution 14-02 Sponsors: Southern Minnesota Municipal Power Agency; Sacramento Municipal Utility District; Minnesota Municipal Utilities Association; Salt River Project In Support of Distributed Generation Policies that Allow for Local Decision-making and Equitable Rates Among Customers 1     The amount of distributed generation (DG), in particular solar, has increased significantly in the last five 2   years. As of 2011, 4 gigawatts (GW) of distributed capacity has been installed in the U.S., and is 3   expected to increase to approximately 9 GW by 2016, and as much as 20 GW by 2020. There are a 4   number of factors driving this exponential growth, including: the significant decrease in the price of solar 5   panels, which has led to a 70 percent drop in solar installation costs since 2008; the concomitant increased 6   consumer demand; the leased financing model reducing upfront costs for consumers; and state, federal, 7   and utility incentives for solar panel installations, as well as state renewable portfolio standards (RPS). 8   9   Distributed solar provides both opportunities and challenges for utilities and their customers. As with all 10   distributed technologies, those benefits and costs are site specific and dependent upon the unique resource 11   needs of each utility. Increased levels of DG may be able to reduce the need for new utility generation 12   assets, providing a source of clean, emissions-free electricity (maturation of battery storage technology 13   could further reduce the need for new generation). It may also be able to reduce peak demand or lessen 14   demand on heavily loaded distribution system feeders. In addition, future solar with advanced inverters 15   may help balance load on distribution systems. 16   17   While DG can provide benefits to electric utilities, it can also pose operational challenges. Distributed 18   solar can increase congestion on distribution system feeder lines. It can also, at higher penetration levels, 19   cause electric grid system imbalance. DG can present safety risks for lineworkers, particularly if a DG 20   unit continues to energize a feeder despite a utility service disruption. In addition, enhanced DG 21   penetration can also place an increased strain on the distribution system due to voltage fluctuations caused 22   by the intermittency of solar systems. Utilities will have to make additional investments in technology, 23   training, and staff time to accommodate these operational challenges. 24   25   There are several methods for compensating distributed generators for the power they provide to utilities. 26   Under a net-metering program, a utility will credit customers with on-site generation for their kilowatt- 27   hour (kWh) sales to the grid, and charge them for periods when electricity consumption from the grid 28   exceeds their generation. Essentially, the utility charges the net difference between consumption and 29   generation. Under most net-metering programs, the customer is both charged and credited at the utility’s 30   full retail rate of electricity, potentially over-compensating distributed generators by crediting them with a 31   value of generation that is higher than the utility’s avoided cost. 1 32   33   Under a feed-in tariff (FIT) program, the utility and distributed generator enter into a long-term contract 34   under which the utility agrees to purchase excess generation at a per-kWh price, whereby the customer is 35   paid like a non-utility wholesale power producer. Under FITs, rates vary from utility to utility and can be 36   higher or lower than the retail rate. FITs are more common in Europe than the U.S. and have been used 37   there to incent more DG. 38   39   Recently, a new “dual transaction” model has developed for solar DG where the utility continues to 40   supply all the customer energy needs and the customer sells all the output of the solar installation to the 41   utility. The compensation received is determined by a value-of-solar (VOS) payment which is designed 42   to reflect the value to utility supply, as well as the environmental value. 43   44   DG compensation methodologies may include a component intended to capture the societal benefits to be 45   derived from wider implementation of DG. These components should be carefully developed to avoid 46   overestimating the benefits and passing unjustified costs on to consumers. 47   48   DG can pose additional revenue and customer equity challenges for electric utilities. DG customers are 49   typically compensated at times when they produce excess power to the grid and charged when they 50   consume power from the utility. Their electric bills can net to zero, and in some cases, their net balance 51   can go negative, meaning the utility must pay the customer. Since residential electric bills are based 52   primarily on electric consumption, and the associated customer charges rarely reflect the full amount of 53   fixed costs utilities incur to provide retail electric service, utilities could face a revenue shortfall. As a 54   result, other retail customers (not owning DG) may subsidize customers with distributed generation. 55   56   NOW, THEREFORE, BE IT RESOLVED: That the American Public Power Association (APPA) 57   believes DG can play an important role in public power’s renewable energy portfolio; and 58   59   BE IT FURTHER RESOLVED: That APPA believes it is important that all DG customers pay their 60   fair share of the costs of keeping the grid operating safely and reliably, recognizing the benefits provided 61   by those customers; and 62   63   BE IT FURTHER RESOLVED: That APPA believes DG customer compensation policies must to be 64   designed to reflect utility costs and benefits, and to assure that all those who benefit from the grid or 65   provide benefits to the grid are sharing fairly in the cost of building and maintaining it. 2 Resolution Encouraging State Commissions Policymakers to Continue to Engage in Collaborative Dialogue Regarding Distributed Generation Policies Regulations WHEREAS, Distributed generation (DG) may be de?ned as non-centralized sources of electricity generation generally interconnected to the distribution system and located at or near customers? homes or businesses. Examples of DG include solar panels, energy storage devices, fuel cells, microturbines, reciprocating engines, small wind turbines, backup generation, and combined heat and power (CI-1P) systems; and WHEREAS, DG can offer economic, reliability, and environmental bene?ts to consumers and utilities; and WHEREAS, Many States, recognizing the value of DG in their States, have implemented policies, taken regulatory actions, and offered tax and other incentives to encourage the deployment of such DG technologies; and WHEREAS, One such DG policy, adopted in 43 States, the District of Columbia, and four United States Territories, is net metering that credits DG customers for the excess electricity generated and exported to the electric grid; and WHEREAS, Federal and State policymakers and regulators, consumer advocates, trade associations, utility representatives, and other stakeholder groups are examining DG deployment and its related issues; and WHEREAS, There have been many collaborative efforts involving regulators and various stakeholders addressing the multitude of regulatory and other issues relating to the potential and challenges of DO in providing safe, reliable, affordable, cost-effective, and environmentally sound energy supply; and WHEREAS, The issues related to DG merit continued discussion among stakeholders to develop options for further consideration by policymakers and regulators; now, therefore, be it RESOLVED, That the National Association of Regulatory Utility Commissioners, convened at its 125th Annual Meeting in Orlando, Florida, encourages State commissions and policymakers to continue to participate in collaborative discussions regarding DG so that State commissions (and States) have the bene?t of key stakeholder input and are better prepared to: 0 Evaluate the system-wide bene?ts and costs of DG (including costs and bene?ts relating to the investment in and operation of generation and the transmission and distribution grid) so that those costs and bene?ts relating to DO can be appropriately allocated and made transparent to regulators and consumers; - Ensure that all necessary consumer protections are maintained and assist consumers as they consider or invest in DG technologies and services; - Facilitate the continued provision of safe, reliable, resilient, secure, cost-effective, and environmentally sound energy services at fair and affordable electric rates as new and innovative technologies are added to the energy mix; and - Engage fully and effectively at both the State and federal levels on DG-related policy considerations. Sponsored by the Committee on Consumer Affairs, the Committee on Electricity, and the Committee on Energy Resources the Environment Recommended by the NAR UC Board of Directors November 19, 2013 Adopted by the NAR UC Committee of the Whole November 20, 2013 ENERGY, TRANSPORTATION, AND ENVIRONMENT Resolution URGING EOUITABLE DISTRIBUTION OF ELECTRICITY GRID SYSTEM COSTS WHEREAS, the US. electric grid delivers a product essential to all Americans; WHEREAS, electricity runs our economy, and it powers our homes, businesses, industries, and the smart technologies, and innovations that enhance our quality of life; WHEREAS, the United States needs a diverse supply of safe and reliable electricity; WHEREAS, the domestic development of alternative energy sources should be concurrently beneficial to our country?s environment and to our country?s economy; WHEREAS, the electric power industry is leading the transformation to make the grid more flexible and more resilient to meet the growing demands of our digital society; WHEREAS, the electric power industry directly employs more than 500,000 American workers and is the nation?s most capital-intensive industry, investing more than $85 billion per year, on average, in capital expenditures, including investments in transmission and distribution infrastructure; WHEREAS, more than 40 states, the District of Columbia, and four US. territories now have established policies to regulate the use of rooftop solar panels and other small-scale, on-site distributed generation (00) systems; WHEREAS, it is recognized that when these rooftop solar and other DG systems first came to market years ago, many states approved a billing plan called net metering to encourage their introduction; WHEREAS, net?metered customers pull energy from the grid in the absence of sunshine, and must use the grid to feed energy back into the grid when the solar unit is generating more power than the house or business needs; WHEREAS, some states now have net metering policies that credit rooftop solar or other DG customers for any excess electricity they generate and sell using the grid, and require utilities to buy this power typically at the full retail rate?despite the availability of lower retail rates through self- production or through wholesale market providers; WHEREAS, the full retail rate of electricity often includes the fixed costs of poles, wires, meters, advanced technologies, and other infrastructure that make the electric grid safe, reliable, and able to accommodate solar panels and other 06 systems; WHEREAS, when net-metered customers are credited for the full retail cost of electricity, they effectively avoid paying the grid costs, and utilities may shift these costs for maintaining the grid to those customers without rooftop solar or other DG systems through higher utility bills; WHEREAS, all residential and business consumers who use the electric grid should pay to support its maintenance and to ensure its reliability; 30 RESOLUTION ENVIRONMENT ENERGY, TRANSPORTATION, AND ENVIRONMENT Resolution WHEREAS, shifting costs from those who can afford DG systems to less affluent customers and others unable to afford or qualify for rooftop solar leases is an unfair financial burden; and WHEREAS, the use of rooftop solar and other DG systems now has become more widespread, and many states are reviewing their net metering polices. THEREFORE BE IT RESOLVED, that the National Black Caucus of State Legislators encourages state policymakers to recognize the value that the electric grid delivers to all and to examine the following: updating net metering policies in their states so that solar customers and other distributed generation customers that use the electric grid pay a fair and equitable fee to maintain the grid and to keep it operating reliably at all times; whether such a fee should be charged solely to solar customers and other distributed generation customers and assessed based on their electricity use; policies for solar rooftop customers that distribute system costs equitany by creating mechanisms that recover grid costs from DG systems, enhance cost transparency, and determine if non-solar customers do, in fact, benefit sufficiently from the policy change; and ensuring electric rates are fair and affordable for all customers and that all customers have safe and reliable electricity; BE IT FURTHER RESOLVED, that supports subsidizing the cost of alternative energy build out throughout the country and encourages legislators on the state and federal level to continue to encourage the implementation of alternative sources; BE IT FURTHER RESOLVED, that urges state and federal lawmakers to support programs that provide funding or utilize alternative financing models to aid low-income households and communities to become more energy efficient and to use solar panels or other forms of alternative energy; and BE IT FINALLY RESOLVED, that a copy of this resolution be transmitted to the President of the United States, the Vice President of the United States, members of the United States House of Representatives and the United States Senate, and other federal and state government officials as appropriate. SPONSOR: Representative Joseph Gibbons (FL) Committee of Jurisdiction: Energy, Transportation, and Environment Policy Committee Certified by Committee Chair: Representative Joe Gibbons (FL) Ratified in Plenary Session: Ratification Date is December 13, 2013 Ratification is certified by: Representative Joe (TN), President ENVIRONMENT I RESOLUTIUNETE-M-SZ 3i UPDATING NET METERING POLICIES RESOLUTION WHEREAS, the US. electric grid delivers a product essential to all Americans; and WHEREAS, electricity runs our powers our homes, businesses, industries, and the smart technologies and innovations that enhance our quality of life; and WHEREAS, the United States needs a diverse supply of safe and reliable electricity; and WHEREAS, the electric power industry is leading the transformation to make the grid more ?exible and more resilient to meet the growing demands of our digital society; and WHEREAS, the domestic development of alternative energy sources should be concurrently bene?cial to our country?s environment and to our country?s economy; and WHEREAS, the electric power industry directly employs more than 500,000 American workers and is the nation?s most capital-intensive industry, investing more than $85 billion per year, on average, in capital expenditures, including investments in transmission and distribution infrastructure; and WHEREAS, there is growing interest in rooftop solar panels and other small-scale, on?site distributed generation (DG) systems; and WHEREAS, it is recognized that when these rooftop solar and other DG systems ?rst came to market years ago, many states approved a billing plan called net metering to encourage their introduction; and WHEREAS, some states now have net metering policies that credit rooftop solar or other DG customers for any excess electricity that they generate and sell using the grid and require utilities to buy this power; and WHEREAS, the utilities are typically required to buy the excess electricity at the full retail rate despite the availability of lower rates through self-production or through wholesale market providers; and WHEREAS, the full retail rate of electricity often includes the ?xed costs of the poles, wires, meters, advanced technologies, and other infrastructure that make the electric grid safe, reliable, and able to accommodate solar panels and other DG systems; and WHEREAS, when net-metered customers are credited for the full retail cost of electricity, they effectively avoid paying the grid costs, and these ?xed costs for maintaining the grid then are shifted to those customers without rooftop solar or other DG systems through higher utility bills; and WHEREAS, net-metered customers pull energy from the grid in the absence of sunshine, and must use the grid to feed energy back into the grid when the solar unit is generating more power than the customer needs; and WHEREAS, all consumers who use the electric grid should pay to support its maintenance and to ensure its reliability; and WHEREAS, net metering policies allow customers with rooftop solar or other DG systems to unfairly pro?t from exporting excess energy back to the grid while penalizing customers with basic energy needs who cannot afford rooftop solar or other DG systems; and WHEREAS, African American households experience disproportionate levels of poverty, exceeding the national average, and have lower household income than their non-African American counterparts; and WHEREAS, a lack of electric power affordability diSproportionally impacts economically disadvantaged sectors and threatens the long term ?nancial stability of our country; and WHEREAS, shifting costs from those who can afford DG systems to low-income customers and others unable to afford or qualify for rooftop solar leases is an unfair ?nancial burden; and WHEREAS, energy regulation, including net metering policies, should protect vulnerable populations from drastic price increases or cost-shifting caused by energy production conversion from conventional to renewable sources; and WHEREAS, the use of rooftop solar and other DG systems now has become more widespread, and many states are reviewing their net metering polices; and THEREFORE BE IT RESOLVED, that the National Policy Alliance, which includes the leadership of Blacks in Government, National Association of Black County Of?cials, The National Bar, National Black Caucus of Local Elected Of?cials, National Black Caucus of School Board Members, National Black Caucus of State Legislators, National Conference of Black Mayors and the World Conference of Mayors encourages state policymakers and regulators to recognize the value the electric grid delivers to all and to: 1. Update net metering policies to require that everyone who uses the grid helps pay to maintain it and to keep it operating reliably at all times; and 2. Create a ?xed grid charge or other rate mechanisms that recover grid costs from DG systems to ensure that costs are transparent to the customer; and 3. Ensure electric rates are fair and affordable for all customers and that all customers have safe and reliable electricity. BE IT FINALLY RESOLVED, that a copy of this resolution be transmitted to the President of the United States, the Vice President of the United States, members of the United States House of Representatives and the United States Senate, other federal of?cials, and Governors and other state government of?cials as appropriate. OUTHERN Sign? - 6? norm? Adopted on October 14, 2013 Sponsored by: Senator John Watkins of Virginia Senator Cam Ward of Alabama 6.2013 Updating Net Metering Policies Resolution WHEREAS, the US. electric grid delivers a product essential to all Americans; and WHEREAS, electricity runs our economy?it powers our homes, businesses, industries, and the smart technologies and innovations that enhance our quality of life; and WHEREAS, the United States needs a diverse supply of safe and reliable electricity; and WHEREAS, the electric power industry is leading the transformation to make the grid more ?exible and more resilient to meet the growing demands of our digital society; and WHEREAS, the electric power industry directly employs more than 500,000 American workers and is the nation?s most capital-intensive industry, investing more than $85 billion per year, on average, in capital expenditures, including investments in transmission and distribution infrastructure; and WHEREAS, there is growing interest in rooftop solar panels and other small-scale, on-site distributed generation (DG) systems; and WHEREAS, it is recognized that when these rooftop solar and other DG systems ?rst came to market years ago, many states approved a billing plan called net metering to encourage their introduction; and WHEREAS, some states now have net metering policies that credit rooftop solar or other DG customers for any excess electricity that they generate and sell using the grid and require utilities to buy this power at the full retail rate; and WHEREAS, the full retail rate of electricity often includes the fixed costs of the poles, wires, meters, advanced technologies, and other infrastructure that make the electric grid safe, reliable, and able to accommodate solar panels and other DG systems; and WHEREAS, when net-metered customers are credited for the full retail cost of electricity, they effectively avoid paying the grid costs, and these costs for maintaining the grid then are shifted to those customers without rooftop solar or other DG systems through higher utility bills; and WHEREAS, the use of rooftop solar and other DG systems now has become more widespread, and many states are reviewing their net metering polices; and THEREFORE, BE IT RESOLVED that the Southern States Energy Board encourages state policymakers to recognize the value the electric grid delivers to all and to: 1. Update net metering policies to require that everyone who uses the grid helps pay to maintain it and to keep it operating reliably at all times; *euenm 30m? Adopted on October 14, 2013 Sponsored by: Senator John Watkins of Virginia Senator Cam Ward of Alabama 2. Create a ?xed grid charge or other rate mechanisms that recover grid costs from DG systems to ensure that costs are tranSparent to the customer; and 3. Ensure electric rates are fair and affordable for all customers and that all customers have safe and reliable electricity. Resources EEI  Member  Company   Distributed  Generation  and  Net  Metering   Resources     Online  Toolkit   Be  sure  to  access  the  EEI  online  toolkit  that  includes  links  to  studies  and  analysis,  EEI   messaging  and  outreach  materials,  and  background  on  the  experts  available  to  help   advocate  and  engage  on  issues  within  your  states.     http://www.eei.org/issuesandpolicy/generation/DGResources/Pages/default.aspx    (EEI  member  log-­‐in  and  password  required.)       Internet  Workroom   To  join  EEI’s  Distributed  Generation  Internet  Workroom,  send  an  e-­‐mail  to   jvignoe@eei.org  with  your  name  and  the  name  of  your  company.       Animations   View  EEI-­‐produced  animations  on  net  metering.     Net  Metering  Animation  -­‐  Whiteboard  (3  minutes)   Net  Metering  Animation  -­‐  Whiteboard  (30  seconds)   Net  Metering  Animation   To: Federal, State and Local Policymakers Re: Updating Net Metering Policies The U.S. electric grid delivers a product essential to all Americans. Indeed, electricity runs our economy—it powers our homes, businesses, industries, and enables the smart technologies and innovations that enhance our quality of life. Today, the electric power industry is leading the transformation to make the grid more flexible and more resilient to meet the growing demands of customers in this digital society. In fact, the electric power industry is the nation’s most capital-intensive industry, investing more than $90 billion per year, on average, in capital expenditures, including investments in transmission and distribution infrastructure. The industry also directly employs more than 500,000 workers. As a broad group of organizations that represent American businesses, consumers, organized labor, energy producers, and our nation’s industrial base, we recognize the critical importance of these investments and of maintaining and enhancing the electric power grid. We also believe it is vital for our nation to have a diverse supply of safe and reliable electricity and that electric rates should be fair and affordable for all customers. There is growing interest in the use of distributed generation (DG), such as customer-owned wind, solar photovoltaic (PV) panels, and combined heat and power systems, to meet our nation’s electric power needs. If developed properly, DG has the potential to provide consumers and society with substantial benefits. Hence, electric utilities are pursuing carefully considered, cost-effective DG technologies to meet the needs of their retail consumers and support their systems.       Many states and localities also are reviewing the need for and impact of their net metering policies, which were approved to encourage the introduction of these systems and technologies when they first came to market years ago. (Net metering is a billing mechanism that credits DG customers for the excess electricity they generate and sell to an electric company using the grid.) As you are probably aware, because of the way that some net metering policies are structured, customers who use solar PV panels, for example, are credited for the power they sell to electric utilities, usually at the full retail electricity rate. This rate is far higher than the value of the electric energy sold to the utility, because it also includes payments for all of the fixed costs of the poles, wires, meters, advanced technologies, and other infrastructure that make the electric grid safe, reliable, and able to accommodate solar PV panels and other distributed generation systems. Through the retail credit they receive, net-metered customers effectively are avoiding paying these costs for the grid. Unlike customers who use the grid only to buy power, customers with DG use the grid both to buy power during times when their systems are not producing enough to meet their needs and to sell power when their systems are producing more electricity than is needed. As a result, customers without DG—primarily America’s working families and businesses—unfairly absorb the costs of the grid through higher utility bills. As you consider net metering in your states and localities, we, the undersigned, urge you to recognize the value that the electric grid delivers to all of us and to support policy updates that require everyone who uses the grid to share equitably in the costs of maintaining it and keeping it operating reliably at all times. Sincerely, America’s Natural Gas Alliance American Association of Blacks in Energy American Public Power Association Edison Electric Institute Energy Equipment and Infrastructure Alliance Hispanics in Energy International Brotherhood of Electrical Workers National Association of Neighborhoods National Black Chamber of Commerce National Policy Alliance National Rural Electric Cooperative Association Nuclear Energy Institute U.S. Chamber of Commerce Utility Workers Union of America Updated: March 4, 2014 FOR IMMEDIATE RELEASE NRDC Contacts: Elizabeth Heyd, 202-289-2424, eheyd@nrdc.org, or Pat Remick, 202-289-2411, premick@nrdc.org EEI Contacts: Jeff Ostermayer, 202-508-5683, jostermayer@eei.org, or Jon Corley, 202-508-5609, jcorley@eei.org EEI/NRDC Agreement Supports Policies To Benefit Electricity Consumers and the Environment WASHINGTON, DC (February 12, 2014) – The Edison Electric Institute (EEI) and the Natural Resources Defense Council (NRDC) today announced a joint agreement to advance support for utility policies that enhance the electric power grid for the benefit of all electricity customers and the environment. EEI, which represents the nation’s investor-owned electric utilities, and the major environmental organization will work together to encourage state utility regulators to implement policies that balance the desire to promote innovation, while at the same time supporting fair and adequate cost recovery for maintaining the evolving grid. The agreement urges state utility regulators to adopt a number of policies that range from employing new rate designs to ensure utilities remain financially whole when they help customers adopt distributed generation technologies and use energy more efficiently to assuring customers that costs will not be shifted unreasonably to them from other customers. “The electric power industry’s mission is to provide safe, reliable, affordable, and increasingly clean electricity. Today utilities are partnering with customers, regulators and all stakeholders to transform the way they generate and deliver electricity. This agreement helps chart a path to success,” said EEI Executive Vice President David Owens. Ralph Cavanagh, co-director of NRDC’s energy program, added, “This path-breaking agreement steers us toward new and innovative ways to increase and speed the deployment of clean energy resources. NRDC has long advocated for the increased integration of energy efficiency and renewable energy into the nation’s electric grid.” Owens and Cavanagh announced the agreement during a joint presentation to the National Association of Regulatory Utility Commissioners, which is meeting this week in Washington. NARUC’s chief objective is to serve the consumer interest by seeking to improve the quality and effectiveness of public regulation in America. The joint statement is posted at: http://docs.nrdc.org/energy/files/ene_14021101a.pdf The Edison Electric Institute (EEI) is the association that represents all U.S. investor-owned electric companies. Our members provide electricity for 220 million Americans, operate in all 50 states and the District of Columbia, and directly employ more than 500,000 workers. Visit us at www.eei.org and follow us on Twitter @edison_electric. The Natural Resources Defense Council (NRDC) is an international nonprofit environmental organization with more than 1.4 million members and online activists. Since 1970, our lawyers, scientists, and other environmental specialists have worked to protect the world's natural resources, public health, and the environment. NRDC has offices in New York City, Washington, D.C., Los Angeles, San Francisco, Chicago, Bozeman, MT, and Beijing. Visit us at www.nrdc.org and follow us on Twitter @NRDC. Edison Electric Institute PQWBI tyAssmafmn Dunn's 3651 Dunn EEIINRDC JOINT STATEMENT TO STATE UTILITY REGULATORS February 12. 2014 Introduction The future of America?s vital electricity sector will continue to be a promising one as long as regulatory policies are fair and forward looking. As we move into a new age of innovation, the use of the grid is evolving, facilitating power ?ows in two directions, so that customers can engage in both purchases and sales of energy, and provide other services such as balancing, voltage support, and voluntary load management. Innovation is providing new incentives for customers to use the grid more effectively and ef?ciently, optimizing the use of existing infrastructure. Anticipating as much, we launched a joint campaign in 2008 to accelerate energy ef?ciency gains and encourage utilities to undertake a host of other cost-effective and clean energy resources and grid enhancements. Together, these changes have done much to promote clean energy and ef?cient electricity usage, but they also have highlighted the vital need for regulatory policies that will support fair and adequate cost recovery for maintaining the evolving grid. Recovering the ?xed costs of the grid is becoming more challenging. While customers are discovering new opportunities that enhance the value that the grid brings to them, policy makers should rethink how utility costs are recovered, with consideration needed for new rate designs and new approaches that balance the desire to promote innovation while still enabling recovery of the capital investment that recognizes the value of the grid to all customers and their new uses of the grid. Traditional rate regulation can at times incentivize utility retail sales growth; in turn, utilities sometimes leverage that growth between rate cases to meet system-wide needs for cost recovery and capital investment. Utility customers value electricity for the comforts, conveniences, and productivity it enables such as lighting, cooling, and mechanical drive provided reliably and just-in-time. In 2008, we outlined measures that would keep utilities whole for recovery of authorized non-fuel costs as electricity sales volumes ?uctuated. We reaf?rm that goal. If properly done, utilities can adapt to the changing needs of customers, modern electricity systems, and technologies, while continuing to deliver safe and reliable service, maintain ?nancial integrity by allocating costs of service fairly among customers, and continuously improve environmental performance. But utility regulatory and business model changes are necessary to accelerate progress and ensure transparent and equitable attainment of these objectives. JOINT STATEMENT TO STATE UTILITY REGULATORS The recommendations listed below re?ect our strong belief in the promise of new technologies for enhancing grid performance while lowering emissions communications infrastructure, smart grid technologies, distributed generation, demand response, and upgraded controls). This innovation surge is viewed as having potential for grid improvement (including reliability and cost?effectiveness), and increased value of connectivity. Innovation does not threaten the grid; collectively, technology advances are making the nation?s transmission and distribution systems more important than ever as drivers of economic and environmental progress. Kev recommendations: 1. The retail electricity distribution business should not be viewed or regulated as if it were a commodity business dependent on. growth in electricity use to keep its owners ?nancially whole. Instead, utility businesses should focus on meeting customers? energy service needs. Therefore, recovery of utilities? non?fuel costs should reflect their costs of maintaining and improving the electricity grid, and should not be tied to levels of retail commodity sales. Traditional rate regulation allows non-fuel revenues to grow between rate cases in proportion to growth in commodity sales, which averaged more than twice the rate of population growth between 1973 and 2000 before slowing signi?cantly. If regulators break the linkage between cost recovery and commodity sales, they should provide for reasonable and predictable annual adjustments in utilities? authorized non-fuel revenue requirements. ?Net metering? programs in wide use across the United States have helped valuable ?distributed? technologies such as rooftop solar power gain traction and improve performance, but additional approaches are needed now. Although such generation can reduce a grid?s needs for central station generation and other infrastructure, it typically does not eliminate its owners? needs for grid services. For example, solar generation at a residence typically does not align perfectly with the occupants? energy use, requiring some use of the grid as the equivalent of a battery. When they use distribution and transmission systems to import and export electricity, owners and operators of on-site distributed generation must provide reasonable cost-based compensation for the utility services they use, while also being compensated fairly for the services they provide. Customers deserve the opportunity to interconnect distributed generation to the grid quickly and easily. Utilities deserve assurances that recovery of their authorized non-fuel costs will not vary with ?uctuations in electricity use. Customers deserve assurances that costs will not be shifted unreasonably to them from other customers. Rate designs will continue to develop that reward customers for using electricity more ef?ciently. Examples include, but are not limited to, real-time pricing and variable demand charges that take advantage of digital meter capabilities where available. It is appropriate to consider expanding investor?owned utilities? earnings opportunities to include performance based incentives tied to bene?ts delivered to their customers by cost? effective initiatives to improve energy ef?ciency, integrate clean energy generation, and improve grids. In general, business models should include pro?t opportunities linked to utilities? performance in delivering safe, reliable, affordable, and clean energy services. EEIINRDC JOINT STATEMENT TO STATE REGULATORS 6. We will work together to ensure that energy ef?ciency services reach undersewed populations, including the increased deployment of utility programs focused on affordable multi?family housing. 7. We reaf?rm our goal of ?helping electricity users take advantage of all cost-effective energy ef?ciency opportunities through an integrated combination of ?nancial incentives to customers and minimum standards governing the performance of buildings and equipment,? and we rededicate ourselves to the five key elements of that campaign. 8. We also reaf?rm our call to state regulators, when presented with a reasonable business case by utilities, to ?support signi?cantly enhanced utility investment in ?smart meters? and a ?smart grid? that focuses on delivering new energy management tools to customers, enabling increased energy efficiency, supporting ef?cient new technology such as plug?in electric vehicles, and rcducin the cost of integrating renewable energy generation with variable output into resource portfolios.? Out of B alance The law of unintended consequences is already affecting power markets in Europe and offers valuable lessons for power markets in the rest of the world. BY JEFFREY ALTMAN O VER THE LAST DECADE, VARIOUS WELL-MEANING GOVERNMENTS AND REGULATORS ACROSS EUROPE HAVE CREATED SHORT-SIGHTED RENEWABLE ENERGY POLICIES WITHOUT FULLY ASSESSING THE IMPLICATIONS OF THEIR ACTIONS. These policies, in turn, came as a response to previous policies that slowly revealed themselves to be unsustainable. As a result, the effects of these policies are exerting pressure on consumers, the environment, and power companies alike. Germany has been one of the most aggressive supporters of renewable power in the world and accordingly provides an appropriate case study of the law of unintended consequences. JANUARY FEBRUARY 2014  29 Peter Schaffrath/E.ON Rising Electricity Bills By 2050, Germany is gearing up to reduce carbon dioxide (co2) emissions by 90 percent from 1990 levels and to provide 80 percent of its electricity generation with renewables. In addition, the government wants to phase out nuclear power by 2022. A recent front cover of Der Spiegel magazine, entitled: “Luxury electricity: Why energy is becoming more expensive and what politicians must do about it,” showed gold-plated and diamond-encrusted power cables that succinctly summarized the mood of the German public toward high energy prices. Since the feed-in tariff (fit) program supporting renewables started in the early 2000s, electricity prices have more than doubled, going from 18 cents per kilowatt-hour in 2000 to more than 37 cents in 2013. By comparison, the average electricity price in the United States is 10 cents per kilowatt-hour. The cold reality is that unless the current system is corrected, electricity prices are expected Jeffrey Altman is a senior advisor at Finadvice GmbH in Frankfurt, Germany. Der Spiegel 30  ELECTRIC PERSPECTIVES    Magazine www.eei.org/EP to increase in Germany by 35 percent for consumers and some 30 percent for industrials by 2020. The consequences to Germany as a competitive exporter, as well as to its overall economy, could be significant. Germany’s national strategic energy plan (known as “Energiewende” or energy change), which is currently in development and calls for the buildout of and additional subsidies for renewables, is now being challenged by power companies, industry, consumers, and even some governmental officials. Part of the explanation for the increase in electricity prices lies in the generous government support for renewable energy technologies. For the most part, renewables still are not at grid parity based on ultimate true costs and their adoption requires subsidies and other financial and non-financial incentives. The fit subsidy program already has cost more than $468 billion and some estimate that program costs could exceed $1.3 trillion by the time it expires. German consumers and companies finance clean-energy subsidies by paying a surcharge on their monthly power bills. The levy jumped 18 percent on January 1, 2014, and has surged more than fivefold since 2009, according to a recent Bloomberg report. In October 2012, according to www.stromvergleich.de, this surcharge amounted to 14.6 percent of the electricity price paid by consumers. Since the feed-in tariff program supporting renewables started in the early 2000s, electricity prices have more than doubled, going from 18 cents per kilowatt-hour in 2000 to more than 37 cents in 2013. By comparison, the average electricity price in the United States is 10 cents per kilowatt-hour. Decreasing Wholesale Prices and Thermal Generators Due to massively subsidized renewable energy through fits in Germany and other European countries, producers of other sources of electricity have seen the prices paid to them fall as renewables, with much lower short-term marginal production costs than traditional thermal plants, get dispatched first. Depending on the region, the growth in renewables is creating load and margin destruction to conventional power plants. As more renewable energy is used to meet electricity demand, there is less need for the electricity produced by conventional sources. In addition to this loss of revenue due to reduced production, there also is a reduction of the wholesale price per unit paid to conventional generators since least- cost, subsidized renewable resources displace more costly sources of generation. In Germany, last year’s estimated market price for power was 48 euros per megawatt (mw). In midNovember 2013, the market price for power stood at 37 euros per mw—a reduction of 23 percent. A close examination of daily solar and wind production in Germany shows the unsurprising seasonality of both wind and solar. Moreover, it illustrates that the wind blows only for a couple of minutes on many occasions and that solar has a tremendous amount of variability, including that it is not available during nighttime hours. Therefore, thermal generators are still producing a majority of the load in Germany. (See Figure 1.) In essence, these thermal plants have now moved from baseload plants to back-up plants. Having thermal plants as spinning reserves is nothing unusual to the power industry. What is unusual, however, is having up to 40–55 gigawatts of thermal plants as back-up generation, and just as important, the amount of times these plants must intervene in power markets by producing electricity to quickly make up for the lack of output generated by variable renewable resources. Unfortunately, the magnitude of these interventions is growing and most thermal plants were not built to produce such intermittent power. (See Figure 2.) Moreover, these FIGURE 1 MONTHLY PRODUCTION OF SOLAR, WIND, AND CONVENTIONAL ENERGY (2012) 50 (Terawatt-hours (TWh)) Conventional>100 MW Wind Solar 40 30 20 10 0 Jan. Feb. March April May June July Aug. Sept. Oct. Nov. Dec. Source: Fraunhofer ISE, EEX Transparency Platform JANUARY FEBRUARY 2014  31 FIGURE 2 INTERVENTIONS TO STABILIZE THE GRID IN GERMANY BY GRID OPERATOR TENNET, 2003-2012 1,400 1213 1,200 1,000 800 600 400 200 0 2 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 Source: Tennet FIGURE 3 DEVELOPMENT OF RATINGS OF MAJOR EUROPEAN UTILITIES SINCE 2010 Clear downward trend in ratings for utilities across Europe. Positive AA- / Aa3 Negative l Profitability and investability at stake. Positive A+ / A1 l Negative l Positive A / A2 l Negative l l l Positive A- / A3 l l l Negative l l Positive BBB+ / Baa1 l l Negative l l Positive BBB / Baa2 l Negative l EDF STANDARD & POOR’S ELECTRIC PERSPECTIVES    E.ON EnBW rating as per Jan. 1, 2010 l rating as per May 2013 MOODY’S l standalone rating as per June 4, 2013 (If applicable and different from corporate rating) Source: E.ON 32  GSZ www.eei.org/EP RWE Enel rating as per Jan. 1, 2010 l rating as per May 2013 l standalone rating as per June 4, 2013 (If applicable and different from corporate rating) Iberdrola Depending on the region, the growth in renewables is creating load and margin destruction to conventional power plants. As more renewable energy is used to meet electricity demand, there is less need for the electricity produced by conventional sources. interventions are not sufficient to keep many of these thermal plants economically viable under the current market regime and, as a result, many thermal plants are now being closed. In Germany’s case, these often include the more costly gas-fired plants. Growing Carbon Emissions In fact, perhaps the most unintended consequence of over-subsidizing renewable energy in Europe has been an increase in co2 emissions. In Germany, natural gas prices hovered around $10.00 per million British thermal units last summer, and coal delivered to power plants fell to a record low last fall. In these conditions, many of the highly efficient gas-fired power plants are being put off-line in favor of coal since the price of gas in Europe is so high. In 2013, Bloomberg determined that German power plants burning coal can earn 12 cents per megawatt-hour while German power plants burning natural gas lose 25 cents per megawatt-hour. This discrepancy clearly explains why coal is replacing natural gas. In November, for example, Germany opened its first coal-fired power plant in eight years and more will be coming online in the future, which will grow the coal fleet by 33 percent. As a result, co2 emissions are going up. In 2013, German energy-related co 2 emissions were estimated to increase for the second straight year, by about 20 million tons. Increased Distribution Investments and Capital Costs It is not only the power plants that are being stressed but also the electric grids of the European continent. With the ever-increasing need to call on system resources to balance the system, investment in smart grid technology will become a further necessity in order to balance the system from the variability of renewable power. Moreover, grids will need to be refurbished to handle additional loads as well as built out to go to those locations where renewable resources are more prevalent. JANUARY FEBRUARY 2014  33 Siemens Germany, for example, is going through a massive build-out of its grids to facilitate new onshore and offshore wind farms as well as solar farms. It is estimated that this investment will range from 21– 27 billion euros over the next decade. Balancing the Market and the Grid Replacing costly resources with less costly ones is exactly what competitive and well-functioning markets are supposed to do. However, as Germany’s situation proves, government policies of large renewable subsidies without giving consideration to the balancing of the whole system have created disequilibrium in the power markets and higher power prices. Current renewable and storage technologies are not economically or technically capable of replacing all load from conventional power producers. Since re- 34  ELECTRIC PERSPECTIVES    www.eei.org/EP newable energy is variable in nature, conventional power plants need to be able to remain in the market so they can be called upon when the wind is not blowing or the sun is not shining. A large reduction in wholesale electricity prices, brought about by unsustainably high subsidies, runs the risk of driving these needed generators out of the market. Without this backup load from thermal generators, issues of reliability of supply occur, including the potential for major power outages. In Germany, there are already calls to modify the existing market rules and provide capacity payments to existing conventional generators to ensure that many of these plants avoid closure. From a regulatory perspective, this is essentially a call for the reregulation of thermal plants that were deregulated back in the late 1990s. Economic Impact to Utilities The impact to European utilities is materially significant. The European Stoxx Utilities Index is down some 31 percent since 2010, and e.on, one of Germany’s largest utilities, has seen its stock plunge some 45 percent since 2010 (although it was also impacted by the nuclear decommis- sioning). The impact to credit ratings of these institutions has also been significant, which helps explain why the cost of capital is going up for the major utilities. (See Figure 3.) The Coming Wave of Regulation All of the factors mentioned previously, as exemplified by what has occurred in Germany, have made various European governments review their policies toward renewables over the last couple of years. Some governments have instituted retroactive taxes or changes in existing regulatory policies where they had inappropriately structured various tariff regimes that had been gamed by various market players or made obsolete by unforeseen technical or market conditions. Spain, for example, went through five regulatory interventions over the last several years that impacted more than 6 billion euros of investors’ equity and debt. A new wave of regulation that will be driven by the incumbent utilities, as well as the governmental authorities, is likely to be coming shortly. Utilities would ask for a fair and level playing field, whereby renewable energy producers would share in the costs of the whole system, including Distributed Generation in the United States BY LOLA INFANTE A grid enhancements. (See the sidebar, “Distributed Generation in the United States.”) Currently, there are ongoing policy discussions with respect to major changes to various national power markets, including reregulating deregulated gas-fired power plants through new subsidy schemes via capacity payments. These actions and current discussions have significantly increased uncertainty not only for utilities but for all power market players. Accordingly, Fitch Ratings has recently announced that it places European renewable energy project finance transactions as having the highest risk of ratings downgrades within the energy sector over the next 12 months. In conclusion, given recent developments in Europe, it can be reasonably expected that within the next decade, renewable capacity will be added based only on its cost competitiveness and ability to maintain equilibrium to the entire system. European governments have finally realized that they can no longer afford to massively subsidize uneconomic renewable power and introduce further instability to the entire electric system. These governments are just now developing the appropriate regulatory frameworks that will allow these new technologies to generate clean and inexpensive electricity— but also provide funding for their fair share of the required grid enhancements and back-up generation costs. As the advancement of capabilities and economies of scale increase in renewable and storage technologies, we will likely see more of these systems coming online and becoming a greater part of the total power portfolio. EP cross the United States, there is growing interest in using rooftop solar panels and other small-scale, on-site power sources known as distributed generation (dg). To encourage the introduction of these systems when they first came to market years ago, many states approved a billing system called net metering. While net metering policies vary by state, generally customers with rooftop solar or other dg systems are credited for any electricity they sell via the electric power  grid. Electric companies are required to buy this power typically at the full retail rate,  which includes all of  the fixed costs of the poles, wires, meters, advanced technologies, and other infrastructure that make the grid safe, reliable, and able to accommodate solar panels or other dg systems.  Through the credit they receive, net metered customers effectively are avoiding paying these costs for the grid. As a result, these costs are shifted to those customers without rooftop solar or other dg systems through higher utility bills. Net metering policies and rate structures in many states should be updated so that everyone who uses the electric grid helps pay to maintain it and to keep it operating reliably at all times. This will ensure that all customers have safe and reliable electricity and that electric rates are fair and affordable for all customers. Please visit the Edison Electric Institute’s website at www.eei.org/ DistributedGeneration for additional information. The resources outline the industry’s support for solar power, as well as our concerns with current net metering policies. EP Lola Infante is director of generation fuels and market analysis for the Edison Electric Institute. JANUARY FEBRUARY 2014  35 Ashley Brown is Executive Director of the Harvard Electricity Policy Group (HEPG), a program of the Mossavar~ Rahmani Center for Business and Government at Harvard University's Iohn P. Kennedy School of Government. HEPG provides a forum for the discussion and analysis of electricity issues in the United States. Mr. Brown is of counsel to the law firm of Greenberg Traurig. He has also served as an advisor on infrastructure regulatory issues to governments such as Brazil, Tanzania, India, Ukraine, Russia, Philippines, Zambia, Namibia, Argentina, Costa Rica and Hungary. From 1983?1993, he served as Commissioner of the Public Utilities Commission of Ohio, appointed twice by Governor Richard P. Celeste. Prior to his appointment, he was the coordinator and counsel for the Montgomery County [Ohio] Pair HouSing Center, managing attorney for the Legal Aid Society of Dayton, Inc, and legal advisor to the Miami Valley Regional Planning Commission, also in Dayton. Mr. Brown has specialized in litigation in federal and state courts and before administrative bodies. He has taught in public schools. and universities, frequently lectures at universities and conferences throughout the world, and publishes articles on subjects of interest to American and foreign electricity sectors. Louisa Land is Program Director for the Consortium for Energy Policy Research at the Mossavar-Rahmani Center for Business and Government at Harvard University?s John P. Kennedy School of Government. Previously, she held positions with the Los Angeles city government as an analyst for the City Council and as deputy to the City Controller. She received her doctorate in political science from Harvard in 1999. Distributed Generation: How Green? How Ef?cient? How Well-Priced? A close look at the details of state and local programs in support of distributed generation raises some questions about the whether the promotion of green DG actually advances environmental objectives, especially when it takes place in a context of ?net metering? and flat residential electricity rates. It is time to reassess where we are going and to calibrate our pricing and policies to make certain that our efforts are carrying us in the right direction. Ashley Brown and Louisa Lund A backwards-spinning electricity meter driven by a rooftop solar panel is a power- fully appealing image for a public increasingly attuned to environmental, reliability, energy ef?ciency, and self-suf?ciency considerations. Thus, the promo- tion of ?distributed generation" (DC) has substantial public appeal. Not surprisingly, there- fore, throughout the country, various mechanisms such as mandated access, subsidies, net metering programs, solar and other renewable energy credits, feed-in tariffs, and distributed generation requirements embedded within renewable portfolio standards are all being deployed to promote and support DC. DC is generally de?ned as smaller-scale generation intended primarily for self-consumption at the premises of end users, who are connected directly to the 23 front matter 2013 Elsevier Inc. All rights reserved, The Electricity journal Used with permission. Further redistribution prohibited. distribution system for the sale of any excess energy that is pro~ duced. In practice, solar power, particularly rooftOp installations, is the predominant form of energy being promoted through DG programs, although the policies are not necessarily limited to it. Utilities in many areas are struggling to keep up with the demand for new interconnections stimulated by these programs. I theory, distributed genera- tion has the potential for mul- tiple bene?ts, including reduced congestion on transmission lines, increased reliability, and possible reductions in energy losses through the transmission and distribution system. Above all, it is often assumed (sometimes expli- citly and sometimes implicitly) that ?distributed generation" means renewable, low~carbon energy. For many programs nationwide, the wish to promote green energy is the driving force behind support for distributed generation. hose theoretical green ben- e?ts, however, are neither inherent nor certain. There is some evidence that the antici- pated bene?ts are offset by pro? gram costs; potential perverse incentives created with respect to energy conservation, energy ef?- ciency, and technology optimizar tion; and socially regressive cost allocations. Given the importance that green considerations have in driving support for distributed genera- tion, it is to examine carefully the environmental implications of distributed gen- eration programs as they are typically implemented.1 A close look at the details of state and local programs in support of dis- tributed generation raises some questions about whether the promotion of green DG actually advances environmental objec- tives, especially when it takes place in a context of ?net metering? and ?at residential electricity rates. When the context for a distributed generation program is an overall statewide RPS, the result is a zero sum game. I. Is Support for Distributed Generation Cost-effective as a Way to Promote the Use of Renewable Energy? To the extent that support for distributed generation is moti- vated by environmental concerns, there is no clear policy basis for providing more support for green distributed generation than for central renewable generation. But that is exactly what seems to be happening in many cases. Dis- tributed generation programs are often an add-on or carve-out in a larger framework of a statewide RPS or other system of support for renewable energy. The very fact that distributed generation pro? grams need additional support within an RPS framework sug- gests that central generation of renewables is likely cheaper than renewable DG*and further evi- dence for this can be found in the fact that many of the programs intended to support distributed generation come with pre~set limits on the amount of genera- tion to be supported. When a governmeiit establishes a pro- gram but sets a limit on how much it can be used, that consti~ tutes a de facto admission that policymakers are very uncertain as to the bene?ts that are to be gained, so they are ?cutting their losses? up front. When the con- text for a distributed generation program is an overall statewide RPS, the result is a zero sum game in which the distributed genera? tion requirement itself does not increase the overall share of renewables in the electricity sys- temwit merely offsets renewable requirements that would other? wise be fulfilled by central renewables. II. What Effect do Incentives for Distributed Generation Have on Energy Conservation and Energy Ef?ciency? This is a complex question, but one that could yield surprising, and, from an environmental perspective, counterproductive results. Certainly, the same April 2013, Vol. 26, Issue 3 front matter 2013 Elsevier Inc. All rights reserved, 29 environmental concerns that motivate support for promoting renewable DG would favor con- servation and end use ef?ciency. There is, however, a possible con?ict between pricing incen- tives intended to promote DC and rate designs likely to stimulate more ef?cient use of energy. The con?ict can be resolved, as we discuss in the concluding section of this essay, but only by diluting some of the incentives for renewable energy. The con?ict between and energy conservation ef?ciency is rooted in the fact that any use of distributed generation will cause a decline in the revenues being collected by local distribution companies. That occurs, of course, because when self-produced energy is being consumed, the customer is paying nothing for distribution services, other than ?xed charges. In addition, for excess energy2 derived from DC, when payment for that energy is made by net metering, or ?run- ning the meter backward,? the outcome for the distributor is even more severe, since the practical reality of net metering is that the DG owner is effectively being paid the retail price, which includes not only the energy, but also the costs of transmission and distribution as well. While energy payments are economically justi? ?able, as is economic recognition of transmission savings,3 it is very dif?cult to ?nd any reasonable basis for including distribution costs in the compensation paid DG providers, when, in fact, they provide no such services and, naturally, incur no costs for the services they don?t provide. Indeed, DG providers continue to rely on the distributor for distri? bution services. Thus, in any given month, a distributed gen- eration customer might pay only the ??xed? portion of their bill? the part not proportional to energy use?and be paid them?- selves for the full retail value of any electricity they produce in excess of their usage?including There is, however, a possible con?ict between pricing incentives intended to promote DC and rate designs likely to stimulate more efficient use of energy. charges associated with trans- mission and distribution, along with the wholesale cost of energy. his ?net energy? approach creates problems for utili- ties, because it asks them to reimburse the customer an amount greater than the utility's cost savings. When a house with a solar panel on it, for example, sells excess electricity back to the uti- lity, it is at best allowing the utility to save money on wholesale energy costs and perhaps trans~ mission costsmit does nothing to - reduce the utility? 3 distribution costs. So if the utility pays the customer at the full electricity rate, the utility is guaranteed to lose money on distributed gen- eration. Not surprisingly, distri? bution companies will seek to protect themselves from revenue erosion and will pass the responsibility for making up the delta revenue to the balance of their customers. The utilities fear that if they raise the charges tied I to electricity usage, they will cre- ate a vicious cycle in which more and more users opt out, and the whole cost of the distribution system will need to be borne by an ever-shrinking customer base. Given these concerns about demand elasticity and further revenue erosion, distributors are likely to pass those costs through as ?xed, rather than variable, costs, in order to best assure their full recovery. That is precisely where the potential for serious con?ict between environmental objectives and the use of DC to accomplish them arises. I he problem here from a green point of view is not the inherent subsidy (subject to the questions about cost~effectiveness raised above), but the more subtle question of how this is likely to play out in terms of its impact on electricity pricing. As we dis- cussed above, utilities are likely to try to solve the ?nancial problems created by net metering by trying to put more costs into the ??xed? portion of the bill that customers pay even if they use no electricity. Regulators, perhaps sharing con? cerns about revenue erosion, but certainly constrained by the fact that the losses were caused by implementing public regulatory policy regarding the promotion of so front matter 2013 Elsevier Inc. A12 rights reserved, http:/ The Electricity journal DC, are highly likely to go along. The ironic result would be that less and less of the electricity bill is tied to actual usage, with the anti-green result that the rewards for energy ef?ciency, energy conservation, and distributed generation itself become smaller and smaller as more and more costs are shifted to the one part of the bill that everybody has to pay without regard to the level of consumption. In short, the fundamental environmental principle, ?polluter pays,? which in electric pricing means greater emphasis on the part of the bill that rises with consumption, will be violated in the name of promoting ?green energy.? Irony seems an inadequate word to describe that fundamental contradiction.?1 Do Current Rate Structures Discourage Customers From Adopting the Most Bene?cial Technologies? Compounding the distortion- ary impact of net metering is the use of ?at retail rates for electri? city. In many localities, rates for compensating distributed gen- eration are based on old?fash? ioned ?dumb? meters that don?t provide information about when energy was produced. There is a big difference, from the utility? 8 point of view, between the value of energy ?fed in? to the system at a time of peak demand, when wholesale energy prices are high, and the value of energy provided when demand and prices are low. this case, it"s not clear whether providers of distrib- uted generation are more likely to be overcompensated or under compensated?ma good solar installation churning out energy at peak hours might well be under~compensated based on average rates that don?t re?ect the real-time value of the energy being provided to the grid. The In short, the fundamental environmental principle, ?polluter pays,? will be violated in the name of promoting ?green energy.? rates also fail to re?ect transmis? sion savings that DG might enable. What is clear is that incentives are not being provided to support customers in choosing the most valuable forms of dis- tributed generation. Pricing that re?ected the real-time value of wholesale energy might well result in distributed generation deve10ping in new and exciting directions, including creative uses of energy storage that might help to ensure that distributed generation electricity is provided to the grid at the time when it would do the most good. From a technological point of view, therefore, the use of ?at rates for electricity has a perverse effect on the development and deployment of two very impor- tant technologies: smart meters and energy storage. There are three fundamental values asso- ciated with smart meters. The ?rst, of course, is to enable much more ef?cient utility operations. The second is to enable more ef?cient use of energy by end users, and the third is to deal effectively with distributed energy, frdin both economic and safety points of view.5 The use of - net metering (insensitive to when energy is produced), of course, largely negates the potential advantages of smart meters in encouraging more ef?cient energy consumption and distrib- uted generation production, since the incentive to provide energy to the grid at high-value times of day is removed. The other technology adversely affected by net meter- ing is energy storage. If DG were compensated on a real-time basis, its investors would be incenti- vized to deploy storage technol~ ogy in order to maximize the value of what they produce. Given the critical stage of devel- opment in which energy storage technology currently finds itself, that would provide a boost to a technology with great promise for ef?ciency improvements. Indeed, it is almost perverse to promote an intermittent generation tech- nology, such as distributed solar, while discouraging the develop- ment and use of the very tech- nology that will enable solar to be highly reliable. Realwtime pricing of DC would ?x that gap and is April 2013, Vol. 26, Issue 3 front matter 2013 Eisevier Inc. All rights reserved, 31 arguably in the best long term interest of intermittent resources. IV. Which Customers are Most Likely to Bear the Cost of Distributed Generation Programs? To the extent that the above concerns are not addressed, it is worth asking ourselves who will bear the brunt of any inef?cient choices we make with respect to DG. There is a socially regressive aspect to passing on additional costs and delta revenue losses attributed to DC to the balance of customers who do not have DG facilities. While certainly not all DG providers are af?uent, nor will all af?uent customers invest in DC, there is a likelihood that DG investors will on average be higher~income than other custo- mers. It is unlikely that many low- to moderate?income households will have the ?nancial resources and desire to invest in DG. Thus, any additional cost or delta rev- enue loss attributable to DG that is passed on to the balance of cus~ - tomers has a high probability of being a wealth transfer from the less af?uent to the more af?uent. This socially regressive result is compounded by the fact that ?xed costs are incurred equally by all customers, whereas variable costs are passed on based on levels of consumption. Hence poor customers who use small amounts of electricity for lighting, refrigeration, and perhaps entertainment, will pay the same costs as wealthy customers with a plethora of appliances consuming electricity. course, the concerns above are not necessarily reasons to abandon support for distributed generation. They do, however, suggest two areas worth further thought for those con~ cerned with a green agenda. First, if we believe that a transition to greener energy is both vital and likely to be expensive, it is There is a socially regressive aspect?to passing on additional costs and delta revenue losses attributed to DG to the balance of customers who do not have DG facilities. important to be ef?cient in our green energy choices. To this end, it would be to more clearly understand the relative costs of distributed generation compared to alternative sources of green energy?whow much of a premium are we paying for dis- tributed generation under current practices? How much should we pay, and what are we trying to accomplish with this money? Are we fostering an infant industry? If so, how do we decide when to stop? Do we need DG in order to reach renewables goals in the face of NIMBY opposition to larger projects?6 Are the other bene?ts of DC in terms of reliability signi?cant, and how can we quantify them? econd, we should think carefully about how distrib- uted generation is incorporated into overall electricity rates, particularly how it interacts with ?net metering? and ?at rate electricity charges. Does it magnify or reduce the problems of current rate systems in terms of incentives for ef?ciency and demand response? Structuring DG compensation well could alleviate a number of the potential negative outcomes of DC programs??the ?anti-green? and socially regres- sive results of DC pressures on electricity pricing, as well as the disincentives current pricing schemes create to the adoption of ef?cient technologies. All of these can be avoided, or at least miti~ gated, by compensating DG pro- ducers at the market clearing wholesale price at the time they deliver energy, plus any trans? mission savings they enable. That, of course, would re?ect the true economic value of what they pro- vide. It would also eliminate the other related problem of compen~ sating DG providers based on average costs over the billing cycle regardless of whether they are producing on or off peak.7 The solution to this problem, of course, lies in the deployment of smart meters, which are capable of measuring energy inputs and outputs on a real-time basis. Proponents of DG have, for the most part, opposed such pricing schemes.- They argue that such arrangements will make DG less attractive ?nancially and 32 front matter 2013 Elsevier Inc. All rights reserved, http:/ The Electricity journal therefore reduce the scope of its deployment. They are, of course, probably correct in that assertion. The more money thrown at any technology, the more likely it is to be deployed. Thoughtful deploy- ment of DG, however, is a far more complex matter than simply adopting ?nancial incentives for DC investment. Public policy demands that resource deploy?- ment be consistent with overall system optimization and not just with the promotion of a favored technology. While notions of system optimization may well include both the internal eco- nomics of the network, as well as externalities such as the environment, the practice of simply pricing a particular resource in order to promote it, as opposed to pricing it to reason?- ably re?ect its overall value, constitutes a leap of faith that is virtually incapable of justifica- tion.8 It is, therefore, important to facilitate the entry of DG into the marketplace, but to do so in economically justi?ed ways. For Legislators in states such as Massachusetts and California recognized that there were potentially perverse consequences. April 2013, Vol. 26, Issue 3 front matter 2013 Elsevier Inc. All rights reserved, example, it might be possible to address these problems by chan- ging the compensation of distrib? uted generation to include only the avoided costs of energy and transmission services and to re?ect real~time energy prices. This might mean that it would be harder for homeowners to earn a good return from their distributed generation investments. But this may be a necessary risk. If we are promoting renewable distributed generation for purposes of environmental bene?t, then we need to link that to pricing. What we are doing now is exactly the opposite. We are pro- ducing anti?green pricing to com? pensate for promoting green technology. things currently stand, the desire to have a robust program of support for green distributed generation may be pushing many utilities and reguw lators into supporting programs that, at best, are not cost-effective and at worst create perverse incentives that work against the green goals that motivate them. When it comes to distributed generation, we need additional clarity on what we are trying to achieve and whether distributed generation is the best way to get there. Legislators in states such as Massachusetts and California, despite their aggressiveness in promoting DG, recognized that there were potentially perverse consequences, because they capped the amount of energy required to be purchased. With the experience that we have now had, it is time to reassess where we are going and to calibrate our pricing and policies to make certain that our efforts are carry- ing us in the right direction.- Endnotes: 1. As noted earlier, not all distributed generation is solar, nor renewable, for that matter, but since carbon neutrality is a major, although not necessarily the only, driver of policies promoting DG, much of the focus of DG policy revolves around renewable energy. 2. Excess energy, for purposes of this article, is defined as DG~produced energy in excess of that being consumed at the premises wherein the DG facility is located, energy which is customarily sold into the distribution system. 3. Since DG feeds directly into the distribution system, the purchase of DG reduces the need for transmission services and, therefore, reduces the costs that a distributor would otherwise pass on to their customers. This bene?t is even greater when the distributor is incurring congestion costs on the tranSmission grid, as DG can actually serVe to relieve congestion and thereby reduce system costs. 4. One could make the same argument about de?coupling to remove the utility disincentive to provide demand-side management or energy ef?ciency programs. Energy ef?ciency and DG are not, however, the same. Ef?ciency programs obviate the need for generation, increase end use ef?ciency, and constitute the most environmentally benign source of energy, megawatts. In short, society, over the long run, saves both energy and money. DC, on the other hand, constitutes simply another supply' side resource requiring a revenue stream. While DG may or may not be preferable to other sources of generation for economic or environmental reasons, it does not save energy. It may cause the utility the same kind of revenue erosion as demand side management, but that is not inherently true, as it is with conservation and energy efficiency. The revenue effects of DG are largely, although not entirely, the result of how DG is priced. Thus, comparisons of the rate effect of DG with energy ef?ciency programs are misplaced. 5. Dumb meters do not reveal the presence of stray voltage on the grid when work is being done, while smart meters do. Thus, distribution workers are better protected by smart rather than dumb meters. 6. NIMBY may, in fact, not be unique to large projects. Many communities have contemplated or are likely to contemplate the promulgation of land use, noise, and aesthetics regulations to govern distributed generation. 7. The problem of compensating DC by reversing the meter based billing cycle is not a trivial one. The effect is to pay the producer the same price on? or off" peak, a result devoid of any basis in costs, system bene?ts, externality bene?ts, or any other economic logic, other than simply subsidizing DG. 8. The authors are not arguing that no subsidies are ever justi?ed. Certainly, they may be required to incentivize research and development, and perhaps other limited purposes. That is a subject beyond the scope of this article. What is not a good idea, however, is merely subsidizing a resource to favor a particular technology without fully analyzing the overall effect of doing so, both economically and socially. 34 front matter 2013 Elsevier inc. All rights reserved, Used with permission. Further redistribution prohibited. The Electricity journal Sponsored Content A Principled Approach to DER Katrina McMurrian Executive Director Critical Consumer Issues Forum (CCIF) Today the nation’s electric power grid is undergoing a major transformation—it is changing from a system in which electricity flows one way, from an electric company to the consumer, to a grid where power as well as information can flow to and from the consumer. More than $85 billion in annual capital expenditures are enabling an electric superhighway for the 21 st century and creating more options for consumers to generate some of their own electricity through distributed energy resources (DER). DER include generation technologies such as rooftop solar panels, microturbines that provide auxiliary or backup power for a building, energy storage devices, small wind turbines, and fuel cells. They are non-centralized sources of electricity generation generally interconnected to the distribution system and located at or near customers’ homes or businesses. Most customers with DER produce their own electricity at some times of the day, sell surplus electricity over the grid at others times, and rely upon the grid to provide electricity to them when their generators are not operating or not providing them all the power they need. When paired with appropriate public policies, DER have the potential to provide benefits to consumers, both individually and collectively. There are also challenges associated with DER that should be considered. self-generator at the full retail rate for delivered power, which includes both the cost of the power itself and Potential Benefits & Challenges of DER When paired with appropriate public policies, DER have the potential to provide direct and indirect benefits to consumers, both individually and collectively. Depending on the type of DER, benefits that may be realized include: 1. Cost and risk reduction benefits; 2. Security and reliability; 3. Environmental benefits; 4. Innovation, expanded research and development, and other economic benefits; and 5. Expanded customer choice and control. The growing use of DER, for example, is raising questions about how states should encourage, as well as regulate, their use. Some DER incentives—such as net metering, which has been adopted in some form in 43 states and the District of Columbia—have the potential to shift costs from those consumers who generate a portion or all of their own electricity to those consumers who do not. While net metering policies vary by state, an electric company generally must purchase excess power from the 40 State & Local Energy Report // SUMMER 2013 Likewise, the challenges associated with DER should be considered. Depending on the type of DER, such challenges may include: 1. Financial impacts on utilities and customers, including increased costs, revenue losses, and cost-shifting; 2. Safety, security, operational control, reliability, and planning; 3. Siting, permitting, and other environmental issues; 4. Maintaining consumer protection standards; and 5. Jurisdictional and regulatory issues. the fixed costs of maintaining the grid network that supports both consumers with and without DER. Consumers without DER might then have to pick up those fixed costs, thereby subsidizing those consumers with DER. By the same token, if those homes or businesses that generate their power no longer contribute their share of fixed costs to the grid or pay for the costs they impose on the system, then remaining consumers could be exposed to higher rates. Moreover, rates that fail to recover the appropriate share of integration or backup service costs from DER consumers may encourage DER applications that are not economically efficient, which raises the total cost for all electricity consumers. As DER programs expand, it is becoming more important that integrating increasing amounts of DER be done in a way that is fair to consumers with—as well as without—DER. Because the electric grid is a service that everyone uses, everyone should contribute to its upkeep. As such, DER may require new approaches for providing and regulating electricity services. To offer a framework for policymakers and other stakeholders to encourage the development of DER in a way that is both economically sound and equitable for all utility customers, a unique organization, the Critical Consumer Issues Forum (CCIF), has advanced a set of broad principles. In developing this framework, CCIF recognized the differing regulatory and market structures of the states (e.g., vertically integrated utilities, wires-only utilities, etc.), as well as the potential significance of regional and federal requirements. CCIF was formed in 2010 and engages state commissioners, consumer advocates, and electric utility representatives to develop mutually agreeable solutions to energy challenges. Leader from the National Association of Regulatory Utility Commissioners (NARUC), the National Association of State Utility Consumer Advocates (NASUCA), and the Edison Electric Institute (EEI) established the group to provide an opportunity for state commissioners, consumer advocates, and electric industry representatives to collectively tackle tough consumer issues through unique, highly interactive discourse and debate, to find consensus when possible, and at a minimum, to achieve a clearer understanding of–and appreciation for–each group’s specific concerns and positions. Through its distinctive, collaborative process, CCIF recently developed 21 principles to assist policymakers and other stakeholders in evaluating issues related to the opportunities and challenges of DER in providing safe, reliable, affordable, and environmentally sound service to electric consumers. While DER can include energy efficiency and demand response, CCIF focused on distributed generation. Approximately 100 leader from the state commissioner, consumer advocate, and electric utility communities participated in a series of interactive dialogues and formed consensus in the following four areas: • • • • Financial and Regulatory Issues Market Development and Deployment Issues Consumer Issues Safety, Reliability and System Planning Issues Philip Jones, NARUC President and Washington Utilities and Transportation Commissioner, said, “DER is a timely topic that is extremely important for the electric State & Local Energy Report // SUMMER 2013 41 Sponsored Content A Principled Approach to DER Katrina McMurrian Executive Director Critical Consumer Issues Forum (CCIF) Today the nation’s electric power grid is undergoing a major transformation—it is changing from a system in which electricity flows one way, from an electric company to the consumer, to a grid where power as well as information can flow to and from the consumer. More than $85 billion in annual capital expenditures are enabling an electric superhighway for the 21 st century and creating more options for consumers to generate some of their own electricity through distributed energy resources (DER). DER include generation technologies such as rooftop solar panels, microturbines that provide auxiliary or backup power for a building, energy storage devices, small wind turbines, and fuel cells. They are non-centralized sources of electricity generation generally interconnected to the distribution system and located at or near customers’ homes or businesses. Most customers with DER produce their own electricity at some times of the day, sell surplus electricity over the grid at others times, and rely upon the grid to provide electricity to them when their generators are not operating or not providing them all the power they need. When paired with appropriate public policies, DER have the potential to provide benefits to consumers, both individually and collectively. There are also challenges associated with DER that should be considered. self-generator at the full retail rate for delivered power, which includes both the cost of the power itself and Potential Benefits & Challenges of DER When paired with appropriate public policies, DER have the potential to provide direct and indirect benefits to consumers, both individually and collectively. Depending on the type of DER, benefits that may be realized include: 1. Cost and risk reduction benefits; 2. Security and reliability; 3. Environmental benefits; 4. Innovation, expanded research and development, and other economic benefits; and 5. Expanded customer choice and control. The growing use of DER, for example, is raising questions about how states should encourage, as well as regulate, their use. Some DER incentives—such as net metering, which has been adopted in some form in 43 states and the District of Columbia—have the potential to shift costs from those consumers who generate a portion or all of their own electricity to those consumers who do not. While net metering policies vary by state, an electric company generally must purchase excess power from the 40 State & Local Energy Report // SUMMER 2013 Likewise, the challenges associated with DER should be considered. Depending on the type of DER, such challenges may include: 1. Financial impacts on utilities and customers, including increased costs, revenue losses, and cost-shifting; 2. Safety, security, operational control, reliability, and planning; 3. Siting, permitting, and other environmental issues; 4. Maintaining consumer protection standards; and 5. Jurisdictional and regulatory issues. the fixed costs of maintaining the grid network that supports both consumers with and without DER. Consumers without DER might then have to pick up those fixed costs, thereby subsidizing those consumers with DER. By the same token, if those homes or businesses that generate their power no longer contribute their share of fixed costs to the grid or pay for the costs they impose on the system, then remaining consumers could be exposed to higher rates. Moreover, rates that fail to recover the appropriate share of integration or backup service costs from DER consumers may encourage DER applications that are not economically efficient, which raises the total cost for all electricity consumers. As DER programs expand, it is becoming more important that integrating increasing amounts of DER be done in a way that is fair to consumers with—as well as without—DER. Because the electric grid is a service that everyone uses, everyone should contribute to its upkeep. As such, DER may require new approaches for providing and regulating electricity services. To offer a framework for policymakers and other stakeholders to encourage the development of DER in a way that is both economically sound and equitable for all utility customers, a unique organization, the Critical Consumer Issues Forum (CCIF), has advanced a set of broad principles. In developing this framework, CCIF recognized the differing regulatory and market structures of the states (e.g., vertically integrated utilities, wires-only utilities, etc.), as well as the potential significance of regional and federal requirements. CCIF was formed in 2010 and engages state commissioners, consumer advocates, and electric utility representatives to develop mutually agreeable solutions to energy challenges. Leader from the National Association of Regulatory Utility Commissioners (NARUC), the National Association of State Utility Consumer Advocates (NASUCA), and the Edison Electric Institute (EEI) established the group to provide an opportunity for state commissioners, consumer advocates, and electric industry representatives to collectively tackle tough consumer issues through unique, highly interactive discourse and debate, to find consensus when possible, and at a minimum, to achieve a clearer understanding of–and appreciation for–each group’s specific concerns and positions. Through its distinctive, collaborative process, CCIF recently developed 21 principles to assist policymakers and other stakeholders in evaluating issues related to the opportunities and challenges of DER in providing safe, reliable, affordable, and environmentally sound service to electric consumers. While DER can include energy efficiency and demand response, CCIF focused on distributed generation. Approximately 100 leader from the state commissioner, consumer advocate, and electric utility communities participated in a series of interactive dialogues and formed consensus in the following four areas: • • • • Financial and Regulatory Issues Market Development and Deployment Issues Consumer Issues Safety, Reliability and System Planning Issues Philip Jones, NARUC President and Washington Utilities and Transportation Commissioner, said, “DER is a timely topic that is extremely important for the electric State & Local Energy Report // SUMMER 2013 41 Sponsored Content DER) should be based on clear policy objectives and periodically reevaluated based on market conditions. Once the underlying policy objectives are met or as the technologies become costcompetitive or cost-prohibitive, such incentives should be modified or discontinued. incentives, through 4. Any ratemaking practices, taxes, or otherwise, should be fair, transparent, and appropriate. 5. Utility investments required to accomplish DER deployment should be consistent with state policies and recovered in a manner consistent with state laws and regulatory policies. 6. To the extent that state commissions evaluate new regulatory policies and procedures in light of increased emphasis on DER, they should take into account the interests and concerns of all stakeholders. Market Development & Deployment Issues power industry and all consumers – whether they invest in these technologies directly or not. CCIF has afforded the opportunity for state regulators to explore these issues and their potential implications with our colleagues representing both consumer and utility interests. As a result, I expect the principles developed to be a valuable resource not only to those of us who participated in the dialogue, but also to stakeholders across the board.” Paula Carmody, NASUCA President and Maryland People’s Counsel, added that, “Consumer advocates welcome our involvement in a dialogue with state regulators and utility representatives on issues that have real-world implications for consumers. CCIF recognizes that consumer issues are at the forefront in energy policy debates, and in the discussions on DER in particular. Our input as consumer representatives is valued in this process, and the results of this dialogue can be useful as we work through DER-related issues at the state and national levels. Once again, the CCIF process has shown that state regulators, consumer advocates, and electric utilities can find some common ground as we all try to develop a framework to address complex energy issues that may affect every household and business in our respective states.” EEI Executive Vice President of Business Operations David Owens praised CCIF’s collaborative process saying, “The value of collaboration is evident in this quality product. While our three communities face a number of challenges related to the growth of DER, the principles provide an objective framework for addressing them. Certainly, the dialogue on these issues will continue and will afford opportunities for broader participation, but CCIF has guided public policy in a positive direction, potentially benefitting electric consumers for years to come.” 42 State & Local Energy Report // SUMMER 2013 The CCIF framework on DER includes the following 21 consensus principles within the following four respective categories: Financial & Regulatory Issues 1. Generally, DER costs imposed on utilities should be borne by those who cause the costs. For example, backup or standby utility costs (particularly regarding intermittent DER technologies) should be borne by the operator of the DER. 2. Any required allocation of costs to others should be rational, transparent, based on benefits received, and not unduly burdensome. 3. DER incentives (such as tax subsidies, rebates, subsidized financing, or any net metering arrangement that provides benefits exceeding the underlying value of the energy received from that 7. Utility and regulatory processes and requirements should allow for customer deployment of DER technologies subject to reasonable rules and regulations. 8. Utility participation in DER markets should be fair, reasonable, non-discriminatory, and overseen and approved by the appropriate regulatory authority. 9. Policies related to DER interconnection or deployment should be fair, reasonable, not unduly discriminatory, and overseen and approved by the appropriate regulatory authorities. 10. DER should be permitted on either the customer side or the utility side of the meter in accordance with interconnection rules and other applicable regulations. 11. While policies and their application may vary by state, DER programs, grants, or subsidies should be periodically evaluated for cost-effectiveness and adjusted by the appropriate regulatory authority as market conditions and policy objectives or requirements change. 12. Utilities and DER provider should work toward appropriate and reasonable data sharing that facilitates capturing system benefits and identifying costs of DER. Consumer Issues 13. As DER technologies are deployed, consumer protection policies should be periodically reviewed and revised as appropriate. In any event, consumers should be given a clear avenue to resolve complaints. 14. Utilities and DER provider, with the participation of state regulatory bodies and consumer advocates, should develop standards for data protection, access, and disclosure consistent with state requirements. 15. States, consumer advocates, and utilities should coordinate education and customer engagement programs and make available objective information Formed in 2010, the Critical Consumer Issues Forum (CCIF) brings together state commissioners, consumer advocates, and electric utility representatives to tackle consumer-focused energy issues through interactive discourse and debate, to find consensus when possible, and, at a minimum, to achieve a clearer understanding of—and appreciation for— each other’s perspectives and positions. Learn more at www.CCIForum.com. associated with DER technologies. 16. In developing DER policies, particular attention should be given to the cost impacts on all utility customers, including those not participating and those least able to afford such costs. Safety, Reliability & System Planning Issues 17. Utilities should be aware that changes to utility system planning and operations may be required because of greater integration of DER technologies. 18. DER interconnection standards, procedures, and practices must ensure the safety of the public, first responder, and electric utility workers. These standards, procedures, and practices must also protect utility and customer assets. 19. DER deployment must be accomplished in a manner that does not compromise the continued reliability of utility infrastructure and operating systems. 20. DER deployment should not diminish infrastructure security or cybersecurity. 21. Transmission and distribution planning entities should consider and incorporate as appropriate state DER requirements into their planning processes. For more information about the Critical Consumer Issues Forum, as well as a copy of the new CCIF report, “Policy Considerations Related to Distributed Energy Resources,” please visit www.CCIForum.com. A former Florida Public Service Commissioner (2006-2009), Katrina McMurrian draws upon extensive regulatory experience to organize and facilitate relevant policy forums and to advise an array of entities on key regulatory and public policy matters. State & Local Energy Report // SUMMER 2013 43 Sponsored Content DER) should be based on clear policy objectives and periodically reevaluated based on market conditions. Once the underlying policy objectives are met or as the technologies become costcompetitive or cost-prohibitive, such incentives should be modified or discontinued. incentives, through 4. Any ratemaking practices, taxes, or otherwise, should be fair, transparent, and appropriate. 5. Utility investments required to accomplish DER deployment should be consistent with state policies and recovered in a manner consistent with state laws and regulatory policies. 6. To the extent that state commissions evaluate new regulatory policies and procedures in light of increased emphasis on DER, they should take into account the interests and concerns of all stakeholders. Market Development & Deployment Issues power industry and all consumers – whether they invest in these technologies directly or not. CCIF has afforded the opportunity for state regulators to explore these issues and their potential implications with our colleagues representing both consumer and utility interests. As a result, I expect the principles developed to be a valuable resource not only to those of us who participated in the dialogue, but also to stakeholders across the board.” Paula Carmody, NASUCA President and Maryland People’s Counsel, added that, “Consumer advocates welcome our involvement in a dialogue with state regulators and utility representatives on issues that have real-world implications for consumers. CCIF recognizes that consumer issues are at the forefront in energy policy debates, and in the discussions on DER in particular. Our input as consumer representatives is valued in this process, and the results of this dialogue can be useful as we work through DER-related issues at the state and national levels. Once again, the CCIF process has shown that state regulators, consumer advocates, and electric utilities can find some common ground as we all try to develop a framework to address complex energy issues that may affect every household and business in our respective states.” EEI Executive Vice President of Business Operations David Owens praised CCIF’s collaborative process saying, “The value of collaboration is evident in this quality product. While our three communities face a number of challenges related to the growth of DER, the principles provide an objective framework for addressing them. Certainly, the dialogue on these issues will continue and will afford opportunities for broader participation, but CCIF has guided public policy in a positive direction, potentially benefitting electric consumers for years to come.” 42 State & Local Energy Report // SUMMER 2013 The CCIF framework on DER includes the following 21 consensus principles within the following four respective categories: Financial & Regulatory Issues 1. Generally, DER costs imposed on utilities should be borne by those who cause the costs. For example, backup or standby utility costs (particularly regarding intermittent DER technologies) should be borne by the operator of the DER. 2. Any required allocation of costs to others should be rational, transparent, based on benefits received, and not unduly burdensome. 3. DER incentives (such as tax subsidies, rebates, subsidized financing, or any net metering arrangement that provides benefits exceeding the underlying value of the energy received from that 7. Utility and regulatory processes and requirements should allow for customer deployment of DER technologies subject to reasonable rules and regulations. 8. Utility participation in DER markets should be fair, reasonable, non-discriminatory, and overseen and approved by the appropriate regulatory authority. 9. Policies related to DER interconnection or deployment should be fair, reasonable, not unduly discriminatory, and overseen and approved by the appropriate regulatory authorities. 10. DER should be permitted on either the customer side or the utility side of the meter in accordance with interconnection rules and other applicable regulations. 11. While policies and their application may vary by state, DER programs, grants, or subsidies should be periodically evaluated for cost-effectiveness and adjusted by the appropriate regulatory authority as market conditions and policy objectives or requirements change. 12. Utilities and DER provider should work toward appropriate and reasonable data sharing that facilitates capturing system benefits and identifying costs of DER. Consumer Issues 13. As DER technologies are deployed, consumer protection policies should be periodically reviewed and revised as appropriate. In any event, consumers should be given a clear avenue to resolve complaints. 14. Utilities and DER provider, with the participation of state regulatory bodies and consumer advocates, should develop standards for data protection, access, and disclosure consistent with state requirements. 15. States, consumer advocates, and utilities should coordinate education and customer engagement programs and make available objective information Formed in 2010, the Critical Consumer Issues Forum (CCIF) brings together state commissioners, consumer advocates, and electric utility representatives to tackle consumer-focused energy issues through interactive discourse and debate, to find consensus when possible, and, at a minimum, to achieve a clearer understanding of—and appreciation for— each other’s perspectives and positions. Learn more at www.CCIForum.com. associated with DER technologies. 16. In developing DER policies, particular attention should be given to the cost impacts on all utility customers, including those not participating and those least able to afford such costs. Safety, Reliability & System Planning Issues 17. Utilities should be aware that changes to utility system planning and operations may be required because of greater integration of DER technologies. 18. DER interconnection standards, procedures, and practices must ensure the safety of the public, first responder, and electric utility workers. These standards, procedures, and practices must also protect utility and customer assets. 19. DER deployment must be accomplished in a manner that does not compromise the continued reliability of utility infrastructure and operating systems. 20. DER deployment should not diminish infrastructure security or cybersecurity. 21. Transmission and distribution planning entities should consider and incorporate as appropriate state DER requirements into their planning processes. For more information about the Critical Consumer Issues Forum, as well as a copy of the new CCIF report, “Policy Considerations Related to Distributed Energy Resources,” please visit www.CCIForum.com. A former Florida Public Service Commissioner (2006-2009), Katrina McMurrian draws upon extensive regulatory experience to organize and facilitate relevant policy forums and to advise an array of entities on key regulatory and public policy matters. State & Local Energy Report // SUMMER 2013 43 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION David B. Raskin∗ I. Introduction Recent published reports point toward a growing conviction that the demand for utility service from the U.S. electric grid may soon decline, perhaps substantially, due to the expanding use of distributed generation.1 One report prepared by a division of Citigroup describes the improving economics of distributed solar power, which the authors expect will continue.2 A second Citigroup report projects reductions in the demand for utility service in developed markets of up to fifty percent by 2050.3 Favorable projections for distributed generation, however, depend on assumptions about technological change that may turn out to be overstated, and even if distributed generation grows substantially, millions of homes and businesses will continue to rely on the electric grid for many decades.4 * David Raskin is a partner in the Washington, DC office of Steptoe & Johnson LLP. He has represented stakeholders in the electric power industry for more than thirty years. During this time, he has been involved in most of the significant federal regulatory initiatives designed to increase competition in the electric industry and has assisted clients in managing the unprecedented changes that have occurred in recent decades. 1 E.g., Diane Cardwell, On Rooftops, a Rival for Utilities, N.Y. TIMES, July 26, 2013, http://www.nytimes.com/2013/07/27/business/energy-environment/utilities-confront-fresh-threat-do-ityourself-power.html; Peter Kind, Disruptive Challenges: Financial Implications and Strategic Responses to a Changing Retail Electric Business, EDISON ELECTRIC INSTITUTE (Jan. 2013), www.eei.org/ourissues/finance/Documents/disruptivechallenges.pdf‎. 2 Citi Research, Rising Sun: Implications for US Utilities (Aug. 8, 2013), http://www.wecc.biz/committees/BOD/TEPPC/SPSG/Lists/Events/Attachments/706/CITIRising%20Sun%20Implications%20for%20US%20Utilities.pdf. 3 Jason Channell et al., Energy Darwinism: The Evolution of the Energy Industry, CITI GLOBAL PERSPECTIVES & SOLUTIONS 73-75 (Oct. 2013), https://ir.citi.com/Jb89SJMmf%2BsAVK2AKa3QE5EJwb4fvI5UUplD0ICiGOOk0NV2CqNI%2FPDLJq xidz2VAXXAXFB6fOY%3D. 4 Even if Citi’s aggressive prediction of fifty percent demand reduction by 2015 turns out to be 38 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 Germany has gone further to promote distributed generation5 than any other industrialized nation, and its experience provides a cautionary tale. More than a decade after Germany initiated its Energiewende,6 the average residential price for electricity is almost 36 cents per kWh,7 and rates are projected to rise another thirty to fifty percent in the next ten years.8 Without a change in policy, German residential electric rates may therefore approach 50 cents per kWh by the end of this decade. In contrast, the average residential rate in the U.S. is approximately 12.5 cents per kWh.9 Because the average U.S. residence uses approximately 1,000 kWh of electricity per month,10 the current German rate would be equivalent to an average household tax of $3,000 per year. Rates anywhere near the levels being experienced in Germany would be unacceptable in the U.S.11 accurate, that prediction leaves fifty percent of electric load dependent on grid service. 5 In this Article, references to “distributed generation” refer to energy sources located behind the retail meter or connected to a micro grid, where the intent is to remove some load or demand from the system of integrated electric generation, transmission, and distributed facilities that comprise what is referred to in this Article as the “grid.” 6 Energiewende, or energy transformation, is the product of the German Renewable Energy Act of 2000 (Erneuerbare-Energien-Gesetz) that put in place substantial subsidies for distributed generation and grid-connected renewables. See General Information: Transformation of Our Energy System, GER. FED. MINISTRY FOR THE ENV’T, NATURE CONSERVATION AND NUCLEAR SAFETY, www.bmu.de/P118-1/ (last visited Nov. 24, 2013). 7 Jesse Morris, How Germany’s Solar Evolution Impacts America, EARTH TECHLING (Oct. 12, 2013), http://www.earthtechling.com/2013/10/how-germanys-solar-evolution-impacts-america. Ironically, this article laments the fact that the German feed-in tariff rate for distributed solar is only 20 cents per kWh, well below the full retail rate. 8 Institute for Energy Research, Germany’s Energy Policy: Man-Made Crisis Now Costing Billions (Oct. 30, 2012), http://www.instituteforenergyenergy research.org/10/20/2012. Many Germans claim they can no longer afford to buy electricity. Germany’s Energy Poverty: How Electricity Became a Luxury Good, SPIEGEL ONLINE INT’L (Sept. 4, 2013), http://www.spiegel.de/international/germany/high-costsand-errors-of-german-transition-to-renewable-energy-a-920288.html. 9 Energy Info. Admin., Table 5.6.A. Average Retail Price of Electricity to Ultimate Customers by End-Use Sector, (Nov. 20, 2013), http://www.eia.gov/electricity/monthly/epm_table_grapher.cfm?t=epmt_5_6_a. 10 Energy Info. Admin., How Much Electricity Does an American Home Use?, http://www.eia.gov/tools/faqs/faq.cfm?id=97&t=3 (last updated Mar. 19, 2013). 11 Germany’s Environment Minister, Peter Altmaier, has acknowledged that Germany has overdone the subsidies and needs to cut them back. Diarmaid Williams, Altmaier says German energy transition ENERGY INTERNATIONAL (Feb. 21, 2013), could cost $1.34trn, POWER http://www.powerengineeringint.com/articles/2013/02/Altmaier-says-German-energy-transition-couldcost-134trn.html; Minister Altmaier: EEG Cuts Needed—or Energiewende Costs Will Reach Trillion ENERGY BLOG (Feb. 20, 2013), Euro Mark by 2040, GERMAN http://www.germanenergyblog.de/?p=12278. 39 HARVARD BUSINESS LAW REVIEW ONLINE 2013 Even with extraordinarily high and increasing electric rates, aggregate carbon dioxide emissions by the German electric sector are rising.12 In contrast, U.S. emissions are falling even though renewables constitute a much smaller percentage of the electric energy mix in the U.S.13 The stability of the German grid is also being put at risk: it has relied more heavily on variable, renewable generation at the same time that grid resources capable of rapidly balancing supply and demand have been shutting down due to anomalous market price signals.14 Energiewende has also taken a toll on the utility companies that may have to make the grid investments to fix these operating problems. Equity values for Germany’s biggest utilities have fallen by fifty percent or more over the past three years.15 While Germany struggles with Energiewende, the growth of distributed generation in the U.S. is being fueled by a controversial regulatory practice known as net metering. If distributed generation comes to play a significant role, the loss of demand for service from the grid may eventually make it difficult for the owners of grid assets to recover their costs, creating what the utility industry calls “stranded costs.” This Article explores the debate over net metering and then turns to the longer-term prospect of having to address potential stranded costs produced by the expanded use of distributed generation. II. Net Metering: The Current Battlefield Most renewable generation in the U.S. is subsidized through investment or production tax credits.16 This Article focuses on an additional subsidy to distributed renewable generation alone that exists as a result of “net metering” as applied in about forty states. Under net metering, retail customers (including commercial and industrial customers) can offset their electricity purchases from the grid with energy generated 12 Spiegel Online Int’l, supra note 8; Max Luke, Jessica Lovering & Alex Trembath, Trash, Trees and Taxes: The Cost of Germany’s Energiewende, ENERGY COLLECTIVE (Sept. 16, 2013), http://theenergycollective.com/maxluke/274041/trash-trees-and-taxes. 13 An environmental critique of Energiewende can be found in Will Boisvert, Green Energy Bust in Germany, DISSENT (2013), http://www.dissentmagazine.org/article/green-energy-bust-in-germany. 14 Tilting at Windmills, ECONOMIST, June 15, 2013, available at http://www.economist.com/news/special-report/21579149-germanys-energiewende-bodes-ill-countryseuropean-leadership-tilting-windmills. 15 How to Lose Half a Trillion Euros, ECONOMIST, October 12, 2013,ERROR! BOOKMARK NOT DEFINED. available at http://www.economist.com/news/briefing/21587782-europes-electricity-providersface-existential-threat-how-lose-half-trillion-euro. 16 German subsidies primarily take the form of “feed in tariffs” that guarantee minimum per kWh payments to those employing favored technologies, which are paid out of a pool funded by consumers. See Stefan Nicola, German Industry Wants End of Feed-in Tariff on Rising Power Cost, BLOOMBERG (Sep 19, 2013, 5:53 AM), http://www.bloomberg.com/news/2013-09-19/german-industry-wants-end-offeed-in-tariff-on-rising-power-cost.html. 40 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 behind the retail meter, such as from rooftop solar panels. In most of the states that allow net metering, the credit equals the bundled retail rate. The credit applies not only to foregone consumption but also—with limited exceptions—to the energy generated from behind the meter in excess of the customer’s own use and delivered to the utility.17 Net metering therefore values the energy produced by distributed generators at the bundled retail rate for electricity. The bundled retail rate includes, in addition to the cost of producing electric energy, the costs associated with investment in and operation of transmission and distribution facilities and other costs incurred to ensure reliability and fund public policy initiatives endorsed by utility regulators. As noted above, the average residential price of electricity (the average bundled rate) is currently around 12.5 cents per kWh.18 According to published data as of November 2013, the market price of energy from grid-connected19 generators is averaging, in most locations, between 2 and 3 cents per kWh during off-peak periods and between 4 and 5 cents per kWh during on-peak periods.20 Recent sales of grid-connected renewable energy have been priced near or below 3 cents per kWh.21 Therefore, net metering allows the owners of distributed generation to effectively sell their energy at prices between two and six times the market price for energy. Grid-connected renewable generators are paid the much lower market price for their energy, so the issue is not, as advocates of distributed generation allege, merely about promoting “clean” energy. A grid-connected solar generator at the same location as a distributed solar generator receives a fraction of the compensation for providing energy using similar—and equally clean—technology.22 Grid-scale solar generation is actually more efficient, so net metering provides a huge subsidy to a less efficient form of 17 As discussed below, the Federal Energy Regulatory Commission (FERC) has disclaimed jurisdiction over energy supplied from behind-the-meter distributed generation so long as the customer does not supply more excess energy than it acquires from the grid over the course of a monthly retail billing period. 18 Energy Info. Admin., Table 5.6.A, supra note 9. 19 This Article refers to generators that are connected on the utility side of the customer meter as “grid-connected generation” for ease of reference. This is a misnomer, however, because all generation, including generation located on a retail customer’s property on the customer side of the meter, is connected to and part of the electric grid. Electricity does not recognize the difference in location; at all times sufficient energy must be supplied to meet the aggregate demand of all users, and the system must be kept in precise balance (supply equaling demand) in order to prevent outages and serious damage to facilities. 20 See Platts, MEGAWATT DAILY, at 2-10 (November 27, 2013). 21 American Wind Energy Association, The Cost of Wind Energy in the U.S., http://www.awea.org/Resources/Content.aspx?ItemNumber=5547 (last visited Nov. 24, 2013). 22 The analysts at Citi put it succinctly: “While residential solar has the advantage of competing against higher residential electricity prices, merchant utility scale solar must compete against wholesale power prices.” Citi Research, supra note 2 at 21. 41 HARVARD BUSINESS LAW REVIEW ONLINE 2013 renewable energy. Utilities point out that the differential is paid by other retail customers. Because virtually all retail service is billed based on energy usage, net metering causes a reallocation of transmission, distribution, and reliability costs to those customers who do not own distributed generation. Yet, the owners of distributed generation continue to rely on utility service from the grid for back-up and supplemental energy (for example, at night and when it is cloudy). Presently, the use of distributed generation in the U.S. is sufficiently limited that the cost-shifting effects are minor. However, subsidies this large can induce rapid changes. A report recently issued by the California Public Utilities Commission forecasts that net metering will cost the State $1.1 billion per year in 2020.23 It also finds that the average net metering customer in California has an income almost twice the state’s average, 24 confirming claims that net metering entails a wealth transfer from low- to high-income consumers. Net metering raises a number of legal issues that are just beginning to be explored. The definition of “net metering service” in the Energy Policy Act of 2005 indicates that Congress did not endorse the subsidy described above.25 Section 111(d)(11) of the Public Utility Regulatory Policies Act (PURPA)26 was added in 2005 to a list of retail ratemaking practices that state utility commissions are required to evaluate for use in their jurisdictions. This provision defines “net metering service” as follows: Net Metering – Each electric utility shall make available upon request net metering service to any electric consumer that the electric utility serves. For purposes of this paragraph, the term “net metering service” means service to an electric consumer under which electric energy generated by that electric consumer from an eligible on-site generating facility and delivered to the local distribution facilities may be used to offset energy provided by the electric utility to the electric consumer during the applicable billing period.27 23 See Cal. Pub. Utils. Comm’n, CALIFORNIA NET ENERGY METERING (NEM) DRAFT COSTEFFECTIVENESS EVALUATION (2013), available at http://www.cpuc.ca.gov/NR/rdonlyres/BD9EAD367648-430B-A692-8760FA186861/0/CPUCNEMDraftReport92613.pdf. 24 Id. at 110. 25 Energy Policy Act of 2005, Pub. L. No.109-58, sec. 1251, § 111(d), 119 Stat. 962 (codified as amended at 16 U.S.C. 2621(d)(11)). 26 See id.; Pub. Util. Reg. Policies Act of 1978, Pub. L. No. 95-617, § 111(d), 92 Stat. 3117, 3142-43 (codified as amended at 16 U.S.C. § 2621(d)(10)(E)(11) (2006)). 27 Energy Policy Act § 111(d); 16 U.S.C. § 2621(d)(10)(E)(11). 42 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 Under this definition, “electric energy” generated by a retail customer’s on-site facility may be used to offset “energy” provided by the utility. The language strongly implies that Congress meant only to ensure that consumers would receive an appropriate credit for the energy supplied from on-site generation and not a credit based on the bundled retail rate that includes costs associated with transmission, distribution, and reliability. If this is correct, net metering as applied in most states is inconsistent with this part of PURPA.28 In 2002, the Supreme Court of Ohio addressed this very issue in connection with interpreting Ohio legislation that required public utilities to offer net metering.29 In that case, FirstEnergy proposed a net metering regime under which net metered customers would receive a credit for energy supplied from on-site generation based on the unbundled generation component of the retail rate.30 This proposal was rejected by the Ohio Public Utilities Commission, which directed that FirstEnergy offer a credit based on the full bundled retail rate.31 The Ohio Supreme Court held that FirstEnergy had correctly applied statutory language requiring utilities to provide a credit for the “electricity” produced by on-site generators by offering to credit only the generation component of the retail rate.32 The Court found that FirstEnergy was correct in contending that a net meter customer “does not provide transmission, distribution or ancillary services,” and therefore the term “electricity” in the statute did not require a credit for the costs associated with these other unbundled services.33 Net metering also appears to be inconsistent with provisions of PURPA that were designed to protect electric consumers from cross-subsidization. Under PURPA, utilities are required to purchase energy from qualifying “small power production” facilities that meet eligibility standards established in the law.34 Under FERC regulations, retail customers that own on-site generators with a maximum net generating capacity of less than 1 MW are permitted to self-implement PURPA’s mandatory purchase requirement 28 Congress also did not define what it meant by “delivered to the local distribution facilities” in this provision. It may have intended the energy credit to apply only to energy in excess of the customer’s onsite use, or it may have intended that all energy produced on-site be treated as energy provided to the grid because all such energy substitutes energy that would otherwise be supplied from the grid. Either way, the definition provides only for an energy credit, which is not what occurs in most jurisdictions. 29 FirstEnergy Corp. v. Pub. Utils. Comm’n of Ohio, 768 N.E.2d 648 (Ohio 2002). 30 Id. at 650. 31 Id. 32 Id. at 652. 33 Id. 34 Pub. Util. Reg. Policies Act § 210 (codified at 16 U.S.C. § 824a-3(a) (2006)). FERC regulations refer to these as “qualifying facilities.” 18 C.F.R. § 292.101(b)(1). 43 HARVARD BUSINESS LAW REVIEW ONLINE 2013 without any notification to or approval from FERC.35 Most retail customers using net metering rely on the mandatory purchase requirement to require their host utilities to purchase their energy.36 Absent the PURPA requirement, utilities would generally have no obligation to buy energy from distributed generators because the Federal Power Act37 (the law that applies in the absence of PURPA) does not obligate utilities to purchase energy at wholesale.38 PURPA, however, while requiring utilities to buy, also caps the price paid to qualifying facilities at the purchasing utility’s “avoided cost,” which is defined as the cost of energy that would have been supplied from the utility’s own system if the energy had not been supplied by the qualifying facility.39 Because net metering compensates owners for the energy supplied from distributed generation at the utility’s bundled retail rate, this practice would appear to violate the avoided cost rate cap that is based on the cost of energy alone. The FERC, however, permits net meter customers to avoid this price cap. The FERC holds that unless a retail customer with on-site generation is a net supplier of energy to the grid over the state retail billing period (almost always one month), no sale takes place under PURPA or the Federal Power Act, even if there are substantial deliveries of energy to the grid during the month.40 In the absence of a “sale” to the utility, FERC deems that no mandatory purchase of energy is taking place under PURPA and the avoided cost price cap does not apply.41 The FERC’s theory, that the existence of a “sale” can be determined by netting metered inflows and outflows over the course of a month, was recently rejected in two appellate cases involving FERC’s use of this same theory to determine whether a retail sale has occurred when generators acquire energy for station service purposes, the mirror 35 18 C.F.R. § 292.203(d) (2010). See Stephanie Watson, How Net Metering Works, HOW STUFF WORKS, http://science.howstuffworks.com/environmental/green-science/net-metering2.htm (last visited Nov. 24, 2013). 37 16 U.S.C §§ 791a-825r. 38 From the earliest days of Federal Power Act jurisprudence, courts have emphasized that wholesale power transactions under the Federal Power Act are voluntary. Fed. Power Comm’n v. Sierra Pac. Power Co., 350 U.S. 348 (1956). In organized Regional Transmission Organization (RTO) markets, any generator that signs a service agreement with RTO is permitted to bid its energy into the market and, if dispatched, gets paid the locational marginal cost of energy, even if the generator does not have a contract with a specific buyer. 39 Am. Paper Inst. v. Am. Elec. Power Serv. Corp., 461 U.S. 402, 404 (1983). 40 See MidAmerican Energy Co., 94 F.E.R.C. P 61,340 (2001); Sun Edison LLC, 129 F.E.R.C. P 6,1146 (2009). 41 Id. 36 44 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 image of the net metering situation.42 In these two cases, the D.C. Court of Appeals held that netting could not be used to determine whether a sale has taken place and that there is a sale whenever energy is delivered from the generator to the utility and vice versa.43 The FERC’s disclaimers of jurisdiction in MidAmerican and SunEdison may therefore be subject to a renewed challenge, which, if successful, would require net metering rules to be changed at the state level. This same “netting” theory allows FERC to avoid facing the fact that the prices inherent in net metering are discriminatory. The Federal Power Act prohibits charges for wholesale energy that are “unduly discriminatory,”44 but this prohibition only applies if there is a FERC-jurisdictional wholesale transaction. MidAmerican Energy and SunEdison therefore provide a rationale for FERC to avoid addressing the huge differential between the prices paid to distributed and grid-connected generators for the energy they supply. From both economic and environmental perspectives, energy from distributed generation is no more beneficial than other forms of renewable generation. Energy available to meet electric load, whether generated behind the retail meter or from gridconnected generation, provides equivalent value to the electric system. Therefore, the price discrimination inherent in net metering cannot be justified based on differences in the value of the services offered. If anything, distributed solar is less valuable than most energy from grid-connected generators because the energy output of solar facilities varies uncontrollably. Consequently, utilities must have sufficient grid-connected capacity on hand to supply the entire load when solar generation is non-productive. For the same reason, retail customers with distributed generation require access to grid-supplied energy up to their full load at unpredictable times.45 Indeed, solar generation has a pernicious effect on energy markets because energy from solar generators tends to suppress energy market prices during peak-load periods, providing less revenue for grid-connected 42 See S. Cal. Edison Co. v. FERC, 603 F.3d 996 (D.C. Cir. 2010); Calpine Corp. v. FERC, 702 F.3d 41 (D.C. Cir. 2012). 43 See S. Cal Edison Co. 603 F.3d at 1000-01; Calpine Corp. 702 F.3d at 45. 44 16 U.S.C. § 824e(a). 45 California is attempting to overcome this issue by requiring utilities to purchase storage capacity using new technologies to help balance supply and demand. Order Instituting Rulemaking Pursuant to Assembly Bill 2514 to Consider the Adoption of Procurement Targets for Viable and Cost-Effective Energy (published October 17, 2013), Cal. Pub. Utils. Comm’n, 2013 Cal. PUC LEXIS 569, available at http://docs.cpuc.ca.gov/PublishedDocs/Published/G000/M078/K912/78912194.PDF. Whether these alternative technologies will become available in sufficient quantities and at a reasonable cost to replace balancing generation from the grid, and how long this may take, is unknown. 45 HARVARD BUSINESS LAW REVIEW ONLINE 2013 generation and falsely signaling to the market that grid-connected generation that is needed for reliability is no longer economic.46 In conclusion, net metering as currently practiced in most states provides a huge subsidy to distributed generators over and above the tax subsidy provided to all renewable generation, discriminates against all forms of grid-connected generation (including renewables), forces an inappropriate re-allocation of the costs of the grid to remaining (and disproportionately lower income) customers, and sends a faulty price signal that can cause under-investment in (or early shut down of) grid-connected generation that is needed for real-time balancing purposes and to meet peak demands. These same problems—in larger scale—are among the primary causes of Germany’s growing dysfunction. III. The Return of Stranded Costs Broadly speaking, the current dispute over net metering is about managing the growth of distributed generation during the period when growth is being fueled by subsidies. If projections such as those made by Citigroup are correct, the cost of energy from distributed generation will decline, eventually making it competitive with energy from the grid without subsidies, and the pace of growth will accelerate. At some point, distributed generation could be married to behind-the-meter storage capability, permitting customers to disconnect from the grid or significantly limit their use of utility service. Investments in distributed generation combined with storage should expand rapidly when and if the combined cost of distributed energy and storage reaches parity with the cost of bundled service from the grid. In this scenario, as the demand for service from the grid declines and utilities need to recover the cost of the grid from a smaller customer base, utilities will have to respond by filing to raise rates. While this is occurring, a large body of customers will remain dependent on electricity from the grid for a considerable period of time since many customers may not have the resources to install distributed generators and others may choose to take their electric service from the grid. Even as this possible transition approaches, billions of dollars of grid investments 46 The Economist notes: “Renewables can depress wholesale prices, e.g. when the sun creates a midday jolt. This discourages investors in the flexible, gas-powered generation needed to provide backup for windless, cloudy days.” Energiewinde, ECONOMIST, July 28, 2012, at 3. Citi Research, noting that solar production causes lower utilization rates for conventional generation plants, concludes: “This would in a perfect economic world lead to the closure of some higher heat rate gas plants, but the problem of course is that much of this generation capacity needs to remain to cover lost generation on less sunny days and at night, and through the winter . . . .” Citi Research, supra note 2, at 17. 46 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 are being made, mostly in response to regulatory mandates.47 As the use of distributed generation grows, investors in grid assets will demand that regulators provide assurance that their investments will be recoverable over time with a reasonable return. Otherwise, the cost of capital will rise, exacerbating the problem of rising rates during the transition, and in a worst case making it impossible for utilities to raise the capital needed to serve remaining customers and compensate investors for their prior investments in the grid. Around the turn of the century, the utility industry faced the prospect that investments in generation might be unrecoverable. In those jurisdictions that permitted “retail choice” of electricity suppliers, utility generation was unbundled and re-priced to market. This competitive transformation produced debates over whether utilities were entitled to recover the costs associated with prior generation investments from departing customers when sunk costs exceeded the revenues recoverable at market prices. The differential was known as “stranded costs.” Utilities argued that they were entitled by law to recover their stranded costs pursuant to an implicit bargain with the government under which utilities had assumed an obligation to serve the public in return for assurance that they would be compensated for their prudent investments made to meet that obligation. Along with many scholars, utilities argued that the law recognized this “regulatory compact” and that failure to permit the recovery of stranded costs represented an unconstitutional taking of utility property.48 Others argued that no such legal right exists and that allowing utilities to recover their stranded costs would be inconsistent with the transition to competition.49 In the states that endorsed retail choice, legislative or regulatory compromises were reached in which utilities recovered most of their stranded costs. The underlying legal question was never resolved decisively in the courts. The stranded cost issue will be different in the context of utility loss of demand to distributed generation. In this context, stranded cost issues will not appear at one point in time (such as a legislative 47 For example, the electric industry is investing significant sums in response to state laws imposing renewable portfolio standards. Large additional investments are being made to modernize the transmission and distribution systems and incorporate so-called “smart grid” technologies. One utility executive recently noted that half the existing transmission grid is more than fifty years old, so sizable investments to sustain it are inevitable. Lisa Barton, IHS The Energy Daily, September 26, 2013, at 14. Several northeastern states are requiring utilities to invest in “hardening” their systems in response to recent storm-related outages. See Diana Cardwell et al., Hurricane Sandy Alters Utilities’ Calculus on Upgrades, N.Y. TIMES, Dec. 28, 2012, at B1. Since 2005, the utility industry has also been subject to mandatory reliability standards approved by the FERC that require significant ongoing investments in the grid. 16 U.S.C. § 824o (2005). 48 See, e.g., J. Gregory Sidak & Daniel F. Spulber, Deregulatory Takings and Breach of the Regulatory Contract, 71 N.Y.U. L. REV. 851 (1996). 49 See, e.g., Susan Rose-Ackerman & Jim Rossi, Disentangling Deregulatory Takings, 86 VA. L. REV. 1436 (2000). 47 HARVARD BUSINESS LAW REVIEW ONLINE 2013 determination to permit retail customer choice) but will emerge gradually as utilities and regulators respond to reductions in aggregate demand for utility service. The stranded cost issue may also include stranded investment in transmission and distribution assets as well as generation. Further, stranded cost recovery will have to be addressed in the context of a declining utility customer base that may ultimately become too small to support recovery. In the last round of stranded costs, customers changing power suppliers remained as transmission and distribution customers of the utility and stranded costs could be recovered in the rates for these unbundled services. A. Cost Recovery for Regulated Assets Assuming distributed generation becomes economical without subsidies, retail customers will be making independent decisions about whether to reduce or jettison utility service, and these decisions will occur over time as the relative economics of gridproduced and distributed electricity change. The stranded cost issue is therefore likely to arise in individual rate proceedings as utilities file to increase their rates to offset the effects of declining demand and regulators respond by requiring offsetting cost reductions to cabin these rate increases to remaining captive customers. As this process unfolds, history teaches that there will be disputes over the prudence of past utility expenditures and over whether particular assets remain “used and useful” and thus eligible for cost recovery. The Supreme Court’s decision in Duquesne Light Co. v. Barasch holds that a utility’s Constitutional right to recover its costs to serve the public is not infringed by regulatory decisions disallowing individual items of cost.50 An unlawful “taking” occurs only when the overall level of rates produces insufficient revenue to satisfy the “endresult” test established in FPC v. Hope Natural Gas Co.51 Hope held that overall rate levels “which enable a company to operate successfully, to maintain its financial integrity, to attract capital, and to compensate its investors for the risk assumed . . . ” are sufficient to pass Constitutional muster.52 The Hope test is fairly subjective and may not produce rates that are attractive to investors. Duquesne suggests that stranded cost issues will have to be addressed through rate litigation, which means the availability of relief to distressed utilities may be delayed.53 Without legislation, moreover, the remaining 50 488 U.S. 299, 314-15 (1989) [hereinafter Duquesne]. 320 U.S. 591, 602-03 (1944) [hereinafter Hope]. 52 Id. at 605. 53 The takings issue will recur if demand declines further over time. If demand declines after rates have been set, utilities will once again under-recover their costs, forcing them to file for another round of rate increases to offset the effect of the loss of load since the prior rate case. Utilities will be playing “catch-up” to get the revenues needed to recover their costs and attract investment. 51 48 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION VOLUME 4 customer base will eventually become too small, forcing utilities to try and convince regulators to permit them to charge exit fees to departing customers. For these reasons, substantial pressure will arise to resolve stranded cost recovery issues through legislation. Legislative fixes will be a hard sell politically, but legislators may be convinced to act in order to prevent important energy policy issues from being decided in the courts.54 In determining which facilities remain used and useful, regulators will have to balance reliability and environmental effects as well as economics. They will also have to address complex competing interests. For example, utilities supply power using a combination of owned generation and purchases in the form of FERC-jurisdictional power purchase agreements (PPAs), most of which are the product of regulatory mandates. Federal law protects FERC-jurisdictional PPAs by requiring state regulators to pass through the costs incurred by utility buyers in their retail rates.55 But this “trapped cost” protection will be a two-edged sword for utilities that face premature retirement of their own generation while continuing to pay third parties for purchased power. FERC may therefore face a host of contract termination disputes. The transition will be made more difficult by the fact that most utility-owned generation is subject to state regulation, PPAs are regulated by FERC, and substantial generation is publicly owned and not subject to traditional rate regulation. Generation cost recovery is likely to be under pressure before transmission and distribution. For the most part, the electric delivery system operates as an integrated network, and it will be difficult to identify specific assets that are no longer required as demand declines. Nonetheless, a substantial portion of the cost of electricity consists of investments in transmission and distribution, and a regulator under pressure to reduce rates would eventually have to pay attention to the cost of these facilities. Stranded transmission and distribution cost issues will play out simultaneously at FERC (which regulates most unbundled transmission) and in state proceedings (for bundled transmission and local distribution) unless Congress changes jurisdictional responsibilities.56 54 Assuming much of the utility industry will have moved into other business lines, including distributed generation, legislators could be less inclined to provide full stranded cost relief in these circumstances. 55 See Nantahala Power & Light Co. v. Thornburg, 476 U.S. 953, 970 (1986); Entergy La., Inc. v. La. Pub. Serv. Comm’n, 539 U.S. 39, 48 (2003). 56 In Texas, the Public Utility Commission of Texas (PUCT) regulates all of these functions. In other states where retail rates remain bundled, states will have most of the control over this process for both transmission and distribution assets, unless the FERC chooses (or is forced) to assume jurisdiction over interstate transmission costs that are bundled into retail rates pursuant to the Supreme Court’s opinion in New York v. FERC, 535 U.S. 1 (2002). 49 HARVARD BUSINESS LAW REVIEW ONLINE 2013 Disputes will likely arise over which assets should be targeted for early retirement. The interstate transmission grid, for example, is an integrated network of facilities owned by a large number of entities.57 One can imagine a form of competition among transmission asset owners to protect their assets and avoid stranded costs. Most publiclyowned transmission is not subject to FERC or state jurisdiction, which will further complicate the process. As this process unfolds, utility investors will be watching. As cost recovery uncertainty rises, debt and equity investors will demand higher returns, making it more expensive to maintain a reliable grid and putting further upward pressure on utility rates. At some point, the risks could be large enough that investors will not provide capital on acceptable commercial and regulatory terms, and investment in the grid will become problematic, even as many consumers continue to rely on it. B. Unregulated Generation In regions where utilities have already divested their generation to merchant power producers, capacity and energy is transacted in wholesale markets under the control of RTOs, subject to overarching FERC regulation. Market forces will therefore play a significant role in determining which generators survive as demand declines. The owners of unregulated generation have assumed the market risk and are much less likely to have valid stranded cost claims. But electricity markets will only provide a partial solution. With recent reductions in natural gas costs and flat demand, grid-connected generation is already under considerable economic pressure, and regulators are being asked to approve additional revenue streams to support reliability and new investment. In response to disputes over market rules, regulators are making critical decisions on the economic margin. Therefore, even where generation is subject to market forces, the future portends complex regulatory disputes over how wholesale markets should be organized to respond to reductions in the demand for energy from the grid. At the core of these disputes, an enduring tension will exist between economics, reliability, and fairness. 57 FERC has recently decided that more entities should be eligible to build and own transmission facilities. Transmission Planning and Cost Allocation by Transmission Owning and Operating Public Utilities, Order No. 1000, FERC Stats. & Regs. ¶ 31,323 (2011), order on reh’g, Order No. 1000-A, 139 FERC ¶ 61,132, order on reh’g, Order No. 1000-B, 141 FERC ¶ 61,044 (2012), appeal docketed, S.C. Pub. Serv. Auth. v. FERC, No. 12-1232 (D.C. Cir. 2012). 50 THE REGULATORY CHALLENGE OF DISTRIBUTED GENERATION IV. VOLUME 4 Conclusion Once a sizable number of customers have invested in distributed generation in response to the subsidies afforded under net metering, changing the economic rules will be difficult, both because some customers will have relied on subsidies to make their investments and others will want the same opportunities as their neighbors. Policymakers therefore should not long defer addressing the consequences of providing these subsidies in order to promote distributed generation over other alternatives. What may appear politically attractive in its early stages can quickly become a regulatory and political quagmire, as the Germans are learning. The U.S. will not countenance electric rates anywhere close to German levels, nor an electric system that is not reliable. Over the long term, any required unwinding of the utility-owned grid due to distributed generation will be extraordinarily complex and will raise many novel and intractable legal and policy issues. 51 A Policy Framework for Designing Distributed Generation Tariffs Prepared by: Edison Electric Institute December 2013 © 2013 by the Edison Electric Institute (EEI). All rights reserved. Published 2013. Printed in the United States of America. No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, recording, or any information storage or retrieval system or method, now known or hereinafter invented or adopted, without the express prior written permission of the Edison Electric Institute. Attribution Notice and Disclaimer This work was prepared by Edison Electric Institute (EEI). When used as a reference, attribution to EEI is requested. EEI, any member of EEI, and any person acting on its behalf (a) does not make any warranty, express or implied, with respect to the accuracy, completeness or usefulness of the information, advice or recommendations contained in this work, and (b) does not assume and expressly disclaims any liability with respect to the use of, or for damages resulting from the use, of any information, advice or recommendations contained in this work. The views and opinions expressed in this work do not necessarily reflect those of EEI or any member of EEI. This material and its production, reproduction and distribution by EEI do not imply endorsement of the material. Published by: Edison Electric Institute 701 Pennsylvania Avenue, N.W. Washington, D.C. 20004-2696 Phone: 202-508-5000 Web site: www.eei.org Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs EXECUTIVE SUMMARY It is a fundamental rule of electric utility regulation that customers should pay for the costs of the services they receive from their utility and the electric power grid and should not pay for the costs of services provided to other customers. This principle applies to the services electric utilities provide to all customers, including customers with distributed generation (DG) systems. DG systems are small-scale, on-site power sources located at or near customers’ homes or businesses. Some common examples include solar panels, energy storage devices, fuel cells, microturbines, small wind turbines, and combined heat and power systems. The way utilities currently charge customers runs counter to this principle when customers are able to dramatically curtail their electricity usage, as customers with DG systems (DG customers) can do. Most of the costs of providing electric service to customers are recovered on a fixed-cost basis. The costs of metering, billing, and call center support, plus the costs to support the grid infrastructure (poles, wires, meters, other technologies, etc.) are largely the same regardless of how much electricity a customer uses.1 However, utility rates are mostly volumetric – they are proportional to use. Consequently, utilities must recover what are essentially fixed costs through rates that vary by usage. When customers dramatically curtail usage, the fixed costs are not recovered from those customers and must be recovered from other customers. Further, when DG customers are able to generate enough electricity to offset all of their needs with some electricity left over, they can use the grid to sell any excess electricity that they generate to electric utilities and are, in most cases, credited at the full retail price for this electricity (i.e., retail price net metering). In these cases, the utility must pay the DG customer for the fixed costs that the utility, not the customer, is incurring. Again, these costs get shifted to other customers. State rate policies for DG should be updated to ensure that everyone who uses the electric grid helps pay to maintain it and to keep it operating reliably at all times. Any cost-shifting to non-DG participating customers created by current rate design policy should be resolved. Otherwise, these policies will result in increasing numbers of customers avoiding payment of the full cost of service, with a decreasing number of customers assuming such costs. This is unfair and unsustainable over the long-term. Some DG stakeholders advocate that the utility costs shifted to other consumers represent compensation for benefits, such as avoided emissions and jobs that DG customers provide to other utility customers and/or society at large. Benefits specific to the utility should be determined using a directly quantifiable approach that measures the net cost impact of DG to the utility. However, all sources of electric generation provide jobs and economic benefits and many produce no emissions. The value of such externalities should not be used in setting prices for power from DG unless these costs reduce costs the utility incurs to serve customers. 1 E While capacity-related costs are not strictly fixed, for most customers demand varies little and, for many practical reasons, is treated as a fixed cost. For the purposes of this paper, these costs will be described as fixed. 1 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs This paper is designed 1) to explain how certain policies enable utility DG customers to avoid paying for the costs of critical delivery and support services that they use and 2) to provide alternative approaches that fairly compensate such providers for their generation services, while also ensuring that they continue to pay for the delivery and other services upon which they rely. Section 1 more clearly defines the issue, explains cost causation and the cost-shifting problem, and provides three examples to illustrate the problems that may arise under retail net metering as customers install DG. Section 2 identifies numerous alternative ratemaking approaches that would assure that DG customers pay their share of the costs of the grid and would treat all customers in a fair, sustainable manner. These include, for example, establishing a fixed charge for DG customers to ensure utility recovery of the full cost of the use of the distribution system without cost shifting, and net metering with bidirectional meters as well as various buy/sell arrangements. Section 3 explains why payments for surplus power from distributed generators should reflect the ― avoided cost‖ from the utility’s perspective. Section 3 also explains recent decisions by the Federal Energy Regulatory Commission (FERC) that allow avoided cost to be determined separately for renewable generation when states require the purchase of such renewable sources of power. Distributed generation is an important part of the future of the electric utility industry. Through economic ratemaking, we can help ensure the success of DG and the electric grid that makes it possible and effective. E 2 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs SECTION 1 Defining the Issue The National Academy of Engineering called the North American power grid the ― supreme engineering achievement of the 20th century.‖ Grid electricity has placed its stamp on the world, changing the standard of living by introducing electricity to almost every facet of daily life. It has fundamentally changed the way all customers experience the world. It powers everything from homes, to businesses and industries, to the nation’s critical infrastructure. Grid electricity provides value that far exceeds the actual cost of providing the service. 2 But unlike almost every other business, it has been a longstanding policy in the electric utility industry to charge customers based on the cost to provide a service, not on the value their customers receive. While DG may be changing the way some utility customers interact with the grid, the same costbased approach used for all utility rates should apply to all customers who choose to install DG. As such, rate design should reflect the utility’s cost-of-service and should be guided by the principle of cost causation. Retail utility tariffs should be designed such that all customers, whether they are DG customers or not, pay their share of the costs the utility incurs to serve them. Cost Causation and the Cost-Shifting Problem It is a fundamental rule of utility regulation that customers should pay for the costs of the services they receive from a utility and not pay for the costs of services provided to other customers. Proper cost allocation is essential to fair ratemaking and the avoidance of hidden cross-subsidies. Deviations from this policy lead to distorted incentives and diseconomies that are not sustainable over time, as demonstrated by recent experiences in Europe. As the use of DG increases, many states are reviewing current policies to ensure that they do not negatively impact electricity customers and the power grid upon which we all depend. Unlike customers who use the grid only to buy power, customers with rooftop solar or other DG use the grid both to buy and to sell electricity. Because of the way that some net metering policies were originally designed, net-metered customers are credited for the power they generate usually at the full retail electricity rate, which includes all of the fixed costs of the technologies and infrastructure that make the electric grid safe, reliable, and able to accommodate solar panels and other DG. This paper refers to that practice as ― retail price net metering.‖ Through the credit they receive, DG customers effectively avoid paying the costs for using the grid. As a result, these costs are shifted to those customers without rooftop solar or other DG systems through higher utility bills, unfairly impacting many working families and businesses. 2 See ― Lines Down‖ by Steve Mitnick (2013) for a more complete discussion of the value of grid electricity. 3 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Three examples below illustrate the problems that may arise as customers install DG. 3 Example 1 represents a utility customer who does not self-generate and uses 1,000 kilowatt-hours (kWh) of electricity per month. Example 2 shows a utility customer with a DG system who net meters and generates 1,000 kWh/month and also uses 1,000 kWh/month. (While this customer may take energy from the utility at different times during the month, depending on the relationship between his load and generation output, under net metering the customer’s meter would record zero at the end of the month.) Example 3 shows the utility-customer transaction under a simultaneous buy-sell agreement, in which a customer purchases 1,000 kWh/month from the utility and the utility purchases all of the customer’s output (500 kWh in this example) from the customer’s DG system. The common element in each example is that the customer purchases 1,000kWh/month from the utility. In the first example, the costs to the utility and the amount billed to the customer are the same ($128.50). In the second example, the costs to the utility are $93.50 4 (see second column), but the amount the net-metered customer pays for those costs is only $11.50 (see fourth column). The difference between the two ($82) represents costs the utility incurs to serve the customer that are not recovered under net metering when the customer’s output is valued at the retail rate. Note, both customers still purchase 1,000 kWh of electricity, but the net-metered customer pays much less, despite the fact that he uses the grid both to buy and to sell power. Also note that the customer credit is much higher than the value of the generation it is displacing. This disparity occurs largely because many of the utility’s fixed costs of transmission, distribution, and other charges are recovered through charges based on energy usage. As long as the net-metered customer produces enough electricity at some time during the month to offset all of the electricity used at other times during the month (i.e., net zero usage), the customer avoids paying for any of the fixed costs of being connected to and supported by the utility grid. The customer may even avoid paying for various social programs (e.g., low-income support). As a result, these costs are shifted to other, non-net-metered customers. This dramatic imbalance between costs incurred and revenues contributed is not in the public interest in terms of maintaining the long-term health and viability of the grid. The third example illustrates how these disparities can be avoided. There, the net-metered customer pays his bill for 1,000 kWh, as would normally be the case, and simultaneously receives a payment for 500 kWh of production from the DG unit, which is calculated on the wholesale value of the power. Under this approach, the customer continues to pay for transmission, distribution, and public benefit programs just like every other customer of the utility and is paid for the power that he produces at the wholesale price. This example illustrates how customers with DG can enjoy the benefits they associate with DG and be compensated for the power that they produce. 3 4 Not included is an example of a customer with a DG system who chooses to become completely self-sufficient, totally islanded from the grid. In this case, the customer is not connected to the grid, and the utility has no obligation to serve and incurs no costs. Note that there may be additional costs to serve DG customers (e.g., interconnection costs) that are not included in this example. 4 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Example 1 Utility/Customer Cost Comparison Residential Service 1,000 kWh Monthly Usage Service Cost to utility/month to provide electricity service Representative rate Generation Capacity $40 $0.04/kWh* Fixed costs/mortgage cost for having generation capacity available to serve customers. Generation Fuel and Purchased Power $35 $0.035/kWh Fuel and purchased power to serve customer requirements. Transmission $5 $0.005/kWh* Fixed costs/mortgage cost for having transmission capacity available to serve customers and support the grid, including generation reserves. Distribution $30 $0.03/kWh* Fixed costs/mortgage cost for having local grid and customer-specific facilities available to serve customers. Metering $3.50 $3.50 Cost to meter customer consumption. Billing/Customer Accounting $7 $7 Costs associated with billing and customer information systems. Meter Reading $1 $1 Cost to read meters, including communication costs for Automated Metering Infrastructure. System Benefits/Public Programs/EE/RPS** $7 $0.007/kWh* Cost of customer programs, such as lowincome support, and regulator-mandated programs, such as energy efficiency programs and renewable energy programs. Total $128.50 Description *Fixed costs that are typically collected through volumetric charges in residential customer rates. **EE refers to energy efficiency. RPS refers to renewable portfolio standard. 5 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Example 2 Utility/Customer Cost Comparison Residential Service for DG Customer 1,000 kWh Monthly Usage – 1,000 kWh Generated From DG System Service Cost to utility/month to provide electricity service Representative rate Amount paid by customer/month for service Service costs shifted to nonDG customers** Generation Capacity $40 $0.04/kWh* $0 $40 Generation Fuel and Purchased Power $0 $0.035/kWh $0 Transmission $5 $0.005/kWh* $0 $5 Distribution $30 $0.03/kWh* $0 $30 Metering $3.50 $3.50 $3.50 $0 Billing/Customer Accounting $7 $7 $7 $0 Meter Reading $1 $1 $1 $0 System Benefits/Public Programs/EE/RPS $7 $0.007/kWh* $0 $7 Total $93.50 $11.50 $82 *Fixed costs that are typically collected through volumetric charges in residential customer rates. **DG customers avoid paying these costs so customers without DG will ultimately pay the costs. 6 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Example 3 Utility/Customer Cost Comparison Residential Service for DG Customer Under Simultaneous Buy-Sell Agreement 1,000 kWh Monthly Usage – 500 Generated From DG System Service Cost to utility/month to provide electricity service Generation Capacity Representative rate Amount paid by customer/month for service Service costs shifted to non-DG customers*** $40 $0.04/kWh* $40 $0 Generation Fuel and Purchased Power $35 $0.035/kWh $35 $0 Transmission $5 $0.005/kWh* $5 $0 Distribution $30 $0.03/kWh* $30 $0 Metering $3.50 $3.50 $0 Billing/Customer Accounting $7.00 $7.00 $0 Meter Reading $1 $1 $0 System Benefits/Public Programs/EE/RPS $7 $0.007/kWh $7 $0 $0.035/kWh ($17.50) Generation Credit Total $128.50 $111.00** $0 *Fixed costs that are typically collected through volumetric charges in residential customer rates. **Assumes an avoided cost credit of 3.5 cents/kWh, the short-run generation fuel and purchased power rate. Depending upon the utility, the credit could be higher or lower based on the avoided cost of the fuel source assumed. Generation credit to customer is $17.50. ***Customers with DG avoid paying these costs so customers without DG ultimately will pay the costs. 7 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Charging customers with DG according to a retail price net metering arrangement runs counter to cost causation principles that are the foundation of ratemaking. Such a plan credits the net-metered customer at the full retail rate of electricity when that customer generates electricity. This overcompensates the customer by crediting the customer for all of the delivery and grid services provided by the electric utility, when the customer generation provided to the utility accounts for only a small part of those services—wholesale generation. As described below, not only does net metering shift a portion of the DG customer’s allocated share of fixed costs of grid service to other customers, it also increases the variable energy costs the utility incurs to serve those other customers.5 Further, a DG customer is leaning on the utility system to reverse power flows and is imposing more expenses for the system than generally appear on a customer’s bill. The determination of whether the customer with a DG system is generating more than he uses is generally made over a period of time, such as a month. However, when dissected further, it becomes clear that, on a minute-by-minute basis, the customer with a DG system is generating more than he uses for a much greater percentage of the time than might show up on a monthly total. Much of this loss of detail in tracking generation flows is avoided if the customer with a DG system has a two-meter or two-way system and operates under a rate scheme that accounts for both sales and purchases, such as the buy-sell agreement described in Example 3. Example 2 highlights the resulting mismatch. Under retail price net metering, the utility would pay the customer with a DG system, on average, 12.05 cents/kWh for every kWh the customer generated in excess of the customer’s use at any one time, when the utility could purchase that same amount of power from other sources within a typical price range of 3.0 cents/kWh to 6.5 cents/kWh. The other customers on the system pay the difference. However, this does not capture the full impact of the difference, because the samples above use average prices for the sake of simplicity. For many utilities, costs to serve and costs recovered from customers vary by time blocks. For example, solar is strongest during on-peak time blocks in which both the system price and the retail rate are above average. Some analysts might argue that it is appropriate to pay DG solar customers these high amounts because solar offers benefits to the utility system. For example, solar helps trim peak demand and, as observed in the example, many of the utility costs are driven by peak demand. However, while solar generally produces electricity during periods with above-average demand, its efficacy decreases dramatically during peak periods. Moreover, the warmer the climate, the later electricity usage peaks in general, thus moving the system peak further away from the early afternoon peak for solar. As an illustration of this, utility planners would likely plan for about 2 kilowatts (kW) of contribution to system demand for 5 kW solar systems due to the variable nature of the resource and the lack of coincidence with utility system peak. 5 The examples assume the customer generates an amount of electricity equal to or less than the customer’s monthly use. What if the customer was to generate more electricity than he used? Currently customers with DG are almost exclusively compensated according to a net metering paradigm that, in essence, runs the meter backward when the customer is generating more electricity than is being used and forward when the customer is using more electricity than is being generated. Consequently, if the DG customer was to generate more than he uses, the utility might pay the customer a credit or some other form of compensation. Terms and conditions for this overall net metering scheme vary from utility to utility, but this is the basic plan currently followed for compensating customers with DG that are net sellers. 8 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Most of the other claims of the benefits of solar to utilities prove similarly weak on closer examination. This is evidenced by utilities’ ability to buy solar power, with most of its claimed benefits, on the open market for small multiples of the prices claimed by some analysts. The buy-sell arrangement illustrated in Example 3 shows one approach to solve the problems of retail price net metering. In this example, the customer is credited with the wholesale value of his generation, but continues to pay for the transmission, distribution, and other services he receives from the utility. Here, the utility continues to receive payments for generation because it continues to provide power to the customer. Moreover, the utility has an obligation, as directed by its state public utility commission (PUC), to provide those services should the customer’s DG system not perform because of intermittency or fail for other reasons.6 Other Complications The analysis above reveals how retail price net metering can fail to recover the costs of providing grid services to DG customers. Yet, providing service to DG customers is more complex and costly for utilities than providing service to customers lacking self-generation. DG customers require services beyond those of non-DG customers. For example, DG customers often require advanced metering capabilities and enhanced billing services. These services are more expensive than standard services. The utility will likely also need to offer interconnection services that allow DG customers to access the grid and market, including engineering and design studies to properly design interconnection for these customers. Because utility rates currently recover many of these fixed distribution costs in variable kWh charges, if retail price net metering is applied, utilities will not recover these additional costs from DG customers, thus shifting these costs to other customers. DG customers also have the potential to provide some benefits to the grid. Some DG stakeholders advocate that the utility costs shifted to other consumers represent compensation for benefits, such as avoided emissions and jobs that DG customers provide to other utility customers and/or society at large. Benefits specific to the utility should be determined using a directly quantifiable approach that measures the net cost impact of DG to the utility. However, all sources of electric generation provide jobs and economic benefits and many produce no emissions. The value of such externalities should not be used in setting prices for power from DG unless these costs are measureable and reduce the costs the utility incurs to serve customers. It would be just as unfair—to the extent that those benefits have a direct effect on reducing the utility’s revenue requirement—to shift those benefits to non-DG 6 The value of that capacity is dependent on a number of factors. If a utility has excess capacity, the value of the incremental capacity any individual customer with DG offsets is effectively zero. In aggregate, there are some reductions in system requirements, and, in jurisdictions with capacity markets, there is a fairly transparent value, which is probably not zero. But the aggregate value is very circumstantial. Further, the utility’s purchase of DG generation is no different than the utility’s purchase of generation on the wholesale market. The contractual wholesale market price takes into account all of the costs incurred and saved by the utility in the transaction. These contractual wholesale transactions usually include performance clauses that specify conditions that customers with DG currently do not need to meet. Absent those performance clauses, the price of that generation would be heavily discounted. 9 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs customers as it is unfair to shift those costs of DG that have the effect of increasing the utility’s revenue requirement to non-DG customers. Verified costs and benefits that directly affect the utility’s revenue requirement—or the total cost of providing grid electricity to all customers, both DG and non-DG—should be accounted for and fairly allocated as part of the regulatory process. These may include, for example, the avoided costs of upgrading transmission or distribution facilities. DG advocates believe that crediting DG customers the full retail rate compensates those customers for the additional benefits that DG conveys to the system. However, given that 43 states and the District of Columbia have some form of net metering and, further, given that not all DG is alike in terms of environmental benefits and other qualities, it is unlikely that the full retail rate in each of these jurisdictions matches the verifiable cost savings that DG provides to the utility and its non-DG customers. Consequently, this ― rough justice‖ perspective is often called into question. Importantly, many of the benefits often associated with DG do not directly affect utility revenue requirements. The benefits most often mentioned are externalities that accrue to society more generally. Externality values are the most difficult to model and are currently not reflected directly in the utility pricing model. They should not be accounted for in utility rates. Distributed generation is an important part of the future of the electric utility industry. Through economic ratemaking, we can help ensure the success of DG and the electric grid that makes it possible and effective. 10 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs SECTION 2 Alternative Rate Structures for Distributed Generation Customers For decades, electricity customers have had the ability to own and to operate generating facilities on their premises, including combined heat and power plants in factories, backup turbine generators in commercial buildings, and solar panels on the roofs of commercial facilities. Electric utilities always have had rate designs for purchasing power from these energy resources. In recent years, there has been growing interest in using small versions of these resources, known as distributed generation, which connect directly to the distribution network rather than the higher-voltage transmission grid, and more widespread adoption by residential and small general service customers. The rates for service to these customers are primarily regulated by state commissions. Traditionally, rates that had been designed for residential and commercial customers, when their use of these resources was relatively uncommon, were designed for simplicity, rather than in strict accord with principles of cost causation. If customers on these rates who installed DG systems were over-compensated for the electricity that they sold back to the local utility, the impact on other customers was negligible, because the amount of electricity purchased was insignificant. With more widespread adoption of DG by more customers, the incorrect pricing of net-metered DG power has resulted in a tangible increase in electricity costs to other customers. To address this, many utilities have adopted new approaches to designing rates for DG. This section describes some of the new approaches that have been implemented, along with the particular issues or design questions that might guide a utility’s or state commission’s choice to adopt one approach rather than another. General Rate Design Approaches for Purchases of Customer-Provided Electricity Retail Price Net Metering A common rate design used to compensate residential customers (and small general service customers) for power provided from onsite electricity generation facilities is retail price net metering, as discussed in Section 1. In its most common form, this type of rate enables customers to retain their regular meter. When power is being provided from onsite generation, the electric meter slows or—in cases where onsite electricity generation is exceeding what a customer is actually using—actually runs backwards. With customer usage being recorded by the traditional, single standard interval meter, the utility is incapable of knowing how much electricity the customer actually produced. Hence, a customer on this rate is simply billed for net electricity consumed. In those cases when net electricity usage is negative (because the customer produced more power during a billing period than was consumed), it is standard practice to carry this forward to future bills as an energy or financial credit, rather than to actually send a payment to the customer. Even in those billing periods where there is a net electricity surplus, the customer may still receive a fixed charge for service, which is generally equivalent to the fixed customer and/or demand charges that are part of the standard rate design. 11 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs Initially, the simplicity of the rate design, and the fact that no additional metering equipment was required to support it, made net metering attractive. The fundamental flaw in this approach stems from the fact that, by paying the customer for the full retail rate of electricity, the customer is invariably being paid for more than merely the electricity he generates and delivers to the utility. To the extent that a utility is recovering its fixed costs of service in the volumetric (i.e., per kilowatthour) portion of the retail rate, then the utility is actually paying, rather than charging, the customer with DG for its delivery and grid services whenever the customer is supplying electricity. Moreover, the advent of smart meters has made the process of tracking customer use and sales much simpler and more cost-effective. Responses to Retail Price Net Metering Many utilities, in addressing this issue, have elected to view this as more of a problem stemming from rate design, rather than net metering itself. If a utility can collect all or most of its fixed charges of service in a fixed customer charge and/or monthly demand charge, much of the cost misallocations stemming from retail price net metering disappear. With a rate design more closely aligned with cost causation, in cases where a customer generates a net surplus of electricity in any billing period, that customer still would be billed for the fixed costs of service and only would be compensated for the electricity ― commodity.‖ Therefore, many electric distribution companies have moved toward fixed/variable rate designs that include larger fixed monthly customer charges that are more proportional to fixed costs. In lieu of a general redesign of rates, if DG tariffs at least have a larger fixed monthly charge, then cost recovery and subsidization problems stemming from net metering can be mitigated. There is still a potential problem, however, when fixed costs are passed on to customers in the form of a demand charge, because demand charges are usually set based upon a customer’s peak electricity usage and/or demand only during peak periods. If a customer has reduced peak demand (measured as peak net energy consumption) because of onsite generation facilities, then the computed demand charge may understate the system capacity that the customer is still actually using during other hours. On the other hand, customers with onsite generation might contend that this ― phantom capacity‖ should not be provided at the conventional full retail rate, since it is now rarely used, if ever, and has really become only a standby service. This issue has been less predominant with residential net metering rates, since standard residential rate designs generally consist of a customer charge only to recover fixed costs of service and no demand charge. The issue is also less predominant with variable energy resources, such as solar or wind, since these resources tend to have a limited impact on reducing a customer’s peak demand and consequent demand charges, although this could change when more efficient and affordable electricity storage systems begin to accompany onsite variable resources. Net Metering with Separate Compensation for Electricity Exports One approach to mitigating the cost mismatch inherent in net metering is to establish a fair value rate for net electricity provided to the utility and to apply this rate to the purchase of that electricity. If a standard meter is being used, this could only be done in billing months where total electricity produced by the customer exceeded total electricity consumed, and the special rate would be applied to the excess. However, if a meter is required that is capable of separately measuring total energy exported, then this rate could be applied for all energy supplied to the utility by the customer during the billing period. In either case, the customer still would be billed under the standard applicable 12 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs retail rate for net energy consumed. While this approach provides the utility with the flexibility to set a price on the surplus electricity that it receives from the customer, it does not completely remedy the cost mismatch problem. When a customer’s self-generation is merely reducing net consumption, then the amount being reduced still is being credited essentially at the full retail rate. Net Metering with Bidirectional Meters Another approach to rectifying the cost mismatch described above is to require the use of a meter capable of measuring both total energy consumption and total energy production. With the use of such meters, the most common approach to net metering is to bill the customer under the standard applicable retail rate for all energy consumed, and then to deduct from this bill a credit for energy supplied by the customer at a price that is established by the utility and that is intended to represent the fair value of the electricity that is purchased. The advantage to this approach is that it ensures that the customer will pay all fixed costs of service, including demand charges, which will continue to be calculated based upon the customer’s total energy consumption. This approach provides the utility with the flexibility to set a price on the electricity that it buys back from the customer. Another benefit to this approach is that it obviates the need to fundamentally redesign the standard retail rates in order to better align fixed costs of service with fixed customer charges. Buy/Sell Tariffs Another approach, which is a variant of the previous one, is to put customers with DG systems on special rates for both electricity purchases and electricity sales, rather than to continue to bill the customer for total consumption under a standard retail rate. Base service is provided under a ― parallel generation‖ tariff that includes a fixed monthly customer charge, a demand charge, a ― standby‖ charge, and energy charges for electricity delivered. Electricity is sold back to the utility under a ― purchased power‖ tariff, which consists of an administrative charge, an interconnection facilities charge, and credits for both capacity and energy delivered. Customers may be provided with the option to supply electricity under a fixed contract rate, a variable rate, or a combination of both. Contract Energy Purchases The most sophisticated approach is to mimic the tariff designs that have been in place for years to purchase power from qualifying facilities (QFs) as defined by the Public Utility Regulatory Policies Act (PURPA). Under this arrangement, the customer is treated as a wholesale electricity provider and is put under a sales contract for the purchase of electricity, and often capacity as well. Any electricity that the customer receives from the utility is treated as firm or interruptible backup power, and the customer must contract for it accordingly. Typical options include firm or interruptible maintenance power for planned outages and firm or interruptible standby power for unscheduled outages. These arrangements are often limited to larger general service customers and/or customers who are providing all or nearly all of their electricity needs. Common Design Parameters Each of the following design parameters occurs in one or more of the alternative approaches described below:  Tariff structure: Net metering or energy sales arrangements may be made available as (1) a rider within the standard residential or general service tariff, (2) an auxiliary tariff that is 13 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs linked to the standard one, or (3) a separate standalone tariff with all rates, charges, and conditions for both purchases and sales of electricity fully specified.  Treatment of metering costs: If a bidirectional meter is required, cost recovery for the meter must be specified. Some utilities require that customers pay for meter upgrades upfront. Others opt for cost recovery through a fixed monthly charge, and others simply absorb the cost of the meter, with no explicit cost responsibility assigned to the customer. In all cases, however, costs for any system upgrades that are determined to be over and above what is usually required to support the installation and interconnection of DG facilities are borne by the customer, either as a direct, upfront expense, or as a contribution or revenue guarantee in aid of construction.  Purchase rate(s) for customer-provided generation: A critical component of any DG tariff is the assignment of a purchase rate for electricity provided by the customer. A fundamental design parameter is whether these purchase rates will be identical to the corresponding rates for electricity provided by the utility, or whether they will be different. Following are some of the standard purchase rate assignments: o The energy (per kilowatt-hour) rate that is part of the standard tariff. This is the compensation rate associated with most traditional net metering designs. As described above, unless a utility has designed its standard tariff to recover all of its fixed costs of service in fixed monthly customer and/or demand charges, this energy rate will result in insufficient recovery of fixed costs, which then must be subsidized by other customers. o Variable energy charges, specified by the company. These rates generally are designed to correspond to the projected, forward-looking electricity production and/or purchase costs faced by the utility. As such, each rate represents an ― avoided energy‖ cost, though a projected one, rather than an actual one. Multiple rates may be specified to correspond to peak and off-peak periods, weekdays vs. weekends, and different seasons. The schedule of rates is periodically updated to reflect changing cost projections. o Fixed energy charges. Some tariff designs allow customers to lock into a long-term fixed rate, usually as part of a contract for service. While these energy charges might be intended to correspond to long-term projected wholesale electricity prices, some utilities offer a premium, above-market rate as an incentive to support renewable DG, which is essentially a feed-in tariff. o True avoided-cost energy charges. These tariff designs attempt to compensate customers for the actual avoided energy costs that corresponded to the energy that they provided during each billing period. Simpler designs merely calculate an average wholesale cost of electricity for the billing period just ended, and apply this rate to the energy provided; more sophisticated designs attempt to assign an avoided cost based on the actual time periods (e.g., on-peak vs. off-peak) that the energy was provided within, and the most advanced designs estimate avoided costs based on the real-time cost of electricity. This last design most closely resembles the method used by many utilities to compensate QFs under PURPA in electricity purchase arrangements. A common index used to establish the real-time cost of wholesale 14 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs electricity within organized markets under these arrangements is the day-ahead or real-time hourly locational marginal price.  Compensation for non-energy services: Some rate designs compensate customers for more than merely the energy provided. These are usually payments for capacity, and occur in jurisdictions where markets for electricity capacity exist. Hence, a real value to the capacity can be assigned. Customers often are paid for renewable energy credits as well.  Interconnection standards, codes, and guidelines: The rules, regulations, and procedures under which a customer installs a DG source and integrates it within the electrical system must be clearly outlined and specified, including any special equipment requirements for which the customer is responsible. Interconnection rules generally appear as a section in the rules and regulations section of a utility’s tariff, although sometimes they are included in a contract for service that the customer signs as a condition for entering into a net metering or electricity repurchase arrangement. The breadth and specificity of interconnection rules vary widely among utilities, ranging from a few paragraphs to more than a hundred pages in length.  Service options based upon customer and/or DG facility size: Features of the electricity tariff, including the general rate design offered, the energy buy-back rate, the magnitude of fixed and demand charges, metering requirements, and the imposition of metering or other installation costs, often vary based upon one or more of the following parameters: o Customer class (residential, small general service, large general service); o Size of the DG facilities; o Size of customer (e.g., contract demand in kW); and o Service delivery point (distribution or transmission). For example, many utilities do not charge residential customers for bidirectional or other advanced metering requirements, but do charge general service customers for these meters. In general, residential DG tariffs tend to be less complex than those offered for classes of larger customers. Also, many DG options are only made available to customers with facilities below a certain size. 15 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs SECTION 3 Alternative Approaches to Determining Payments to DG Customers When a utility obtains surplus power from a distributed generator for resale to another customer, it is essentially engaging in a wholesale transaction. Thus, the value of the power is what power of comparable quality and certainty would be in the wholesale market. In practice, since many DG providers are QFs under PURPA, it is appropriate to understand how PURPA’s concept of ― avoided cost‖ applies. PURPA requires utilities to interconnect with, buy power from, and sell power to QFs. Utilities must purchase power from the QFs at rates that are just and reasonable to electricity consumers, are in the public interest, do not discriminate against owners and operators of QFs, and do not exceed the costs the purchasing utility actually avoids. QFs are defined to include only cogeneration facilities and certain small power production facilities (namely, ones up to 80 megawatts that rely on biomass, waste, renewable resources, or geothermal resources). To qualify, the facilities must meet fuel use, fuel efficiency, reliability, and other requirements set by FERC, and must be owned by persons not primarily engaged in the generation or sale of electric power other than from such facilities. Avoided cost is defined as the cost to the utility of energy that ― but for the purchase of electricity from such cogenerator or small power producer such utility would generate or purchase from another source.‖7 Often avoided costs are determined administratively by state PUCs, with oversight by FERC. In such cases, regulators need to exercise caution not to overestimate the costs in order to avoid inappropriately increasing the rates utilities and their customers must pay for power from QFs. When PURPA was passed, and for many decades thereafter, avoided cost was understood to mean that if a utility had more generating capacity than it needed to meet its peak demand, its avoided cost was the short-run marginal cost of additional fuel needed to generate an additional kWh of power. If the utility was short on generating capacity, avoided cost meant the long-run marginal cost of the most economic source of new supply. Yet in recent years, some state regulators have included in avoided costs both the long-run marginal costs of adding new generating capacity and the short-run fuel cost of operating existing capacity. State regulators also have based avoided cost estimates on technology with high capital costs (e.g., nuclear and baseload coal) instead of on technology with low capital costs (e.g., natural gas-fired peakers). In a 2010 order clarifying its PURPA regulations, FERC determined that in estimating avoided costs, states can recognize constraints on utility purchases of energy and capacity created by state requirements to purchase certain amounts of renewable energy. 8 This amounts to an 7 8 16 U.S.C. 824a-3. California Public Utilities Commission, 133 FERC ¶ 61,059 (2010), reh’g denied 134 FERC ¶ 61,044 (2011). 16 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs acknowledgement that renewable resources are frequently more expensive than other supply options (e.g., natural gas-fired generation). If state renewable mandates raise utility costs, FERC says it is acceptable to reflect this in QF purchase rates. In the same ― clarifying‖ order, FERC also determined that states could administer ― tiered‖ avoided costs.9 This means that rather than estimate the true marginal cost of new supply on the utility’s system,10 states can impose multiple avoided costs, one each for a set of discrete technologies. If a state has legislated mandates for discrete renewable energy source technologies (e.g., wind, distributed photovoltaic, central station photovoltaic, fuel cells, biomass-derived synthetic fuels), the state can administer an avoided cost for each. Where the cost of most of these technologies is above market (i.e., above the clearing prices that come out of organized wholesale markets in which all generation types are allowed to bid), the effect of this kind of avoided cost unbundling is to raise the prices utilities pay for renewable power. FERC also determined that states could factor in any ― real costs‖ that utilities face in purchasing 11 energy and capacity. What FERC may have had in mind in elaborating this factor was the cost of new transmission lines needed to bring wind power from the places where the wind blows to the places where people live. These are huge additional costs, which in many cases would not be incurred but for the state renewable resource mandates. Again, FERC enlarged the concept of avoided cost to pass these costs on to consumers. All three of these determinations represent a potentially costly (for utilities and consumers) evolution in regulatory policy away from the original understanding of avoided cost, which was simply the incremental cost of the most economic source of additional supply to the utility. FERC’s 2010 determinations mean that avoided cost can now be used as a tool to promote renewable resources, regardless of the cost, when combined with renewable portfolio requirements in a low-growth environment. To compound matters, FERC recently determined that utilities might not unilaterally curtail QF purchases governed by power purchase agreements during periods when electricity usage is low and the utilities do not need QF power, presumably absent explicit contractual rights to curtail the purchases in such circumstances. Impliedly according to FERC in such cases, PURPA requires utilities to buy QF power—and customers to pay for it—whether the utility needs the power or not.12 Social Pricing Is Incompatible with the Regulatory Compact Many DG advocates argue that the benefits DG installations provide to utility systems and to society are very large and that such benefits should be used to offset a substantial portion of the costs utilities incur to serve DG customers. In effect, this is an argument that the benefits of DG should be priced on the basis of its value, while the benefits of electricity service should be priced based on its cost. 9 Ibid. A utility has only one marginal cost of supply. 11 Same as footnote 2, supra. 12 Idaho Wind Partners 1, LLC, 140 FERC ¶ 61,219 (2012). 10 17 Edison Electric Institute - A Policy Framework for Designing Distributed Generation Tariffs This is mixing apples and oranges. Rate-regulated utilities are able to recover only those actual costs that the utilities experience during ― test years.‖ These costs make their way into required revenues and are recovered in rates controlled by state regulatory commissions. This is the construct that investors rely on when they provide capital to investor-owned electric utilities. This also is the construct assumed in U.S. Supreme Court decisions establishing standards for just and reasonable rates. Utilities use a variety of fuels that produce no air or climate emissions and produce many jobs, but the value of such benefits should not be included in rates for DG power unless these types of costs are already included in utility rates for power produced from renewable, hydro, nuclear, or other non-emitting generation. Payments to Customers with DG Should Be Based on Directly Measurable Avoided Costs from the Utility’s Perspective It follows that to the extent to which distributed generators provide benefits to the utility such benefits should be measured and compensated in terms of reductions in the utility’s cost of service. This can include reductions in fixed costs (e.g., generating, transmission, and distribution capacity) that the utility may avoid or defer because of the presence of a distributed generator on its system. It also can include reductions in variable costs (e.g., fuel) that the utility may avoid. However, it should not include the value of other benefits (e.g., job creation) that do not reduce the utility’s revenue requirements. Such benefits relate to costs that are presently outside (external to) the cost-of-service system. Indeed, they are external to the entire market economy. 18 February  20,  2014     Katrina  Pielli,  US  Department  of  Energy   Senior  Policy  Advisor  to  the  Deputy  Assistant  Secretary  for  Energy  Efficiency,     Advanced  Manufacturing  Office  Deployment  Acting  Supervisor     RE:  Comments  on  Barriers  to  Industrial  Energy  Efficiency     Dear  Katrina:   Thank  you  for  the  opportunity  to  comment  on  the  Department  of  Energy  (DOE)  report  entitled  Barriers   to  Industrial  Energy  Efficiency.    Be  assured  that  National  Association  of  Regulatory  Utility  Commissioners   (NARUC),  National  Rural  Electric  Cooperative  Association  (NRECA),  and  the  Edison  Electric  Institute  (EEI)   support  increased  industrial  energy  efficiency  (IEE),  cost  effective  combined  heat  and  power  systems   (CHP)  and  increased  industrial  competiveness.    In  fact,  the  vast  majority  of  NRECA  and  EEI  members   have  very  active  energy  efficiency  programs  which  are  overseen  by  NARUC  members.    Moreover,  both   NRECA  and  EEI  support  NARUC  resolutions  calling  for  CHP  development  that  is  safe,  cost-­‐effective,   nondiscriminatory,  and  reasonably  priced.  (Resolution  to  Encourage  the  Use  of  Combined  Heat  and   Power,  including  the  Recycling  of  Waste  Energy,  February  20,  2008;  Resolution  in  Support  of  the   Deployment  of  Combined  Heat  and  Power,  November  14,  2012)         State  commissions  have  jurisdiction  over  generation  and  have  jurisdiction  over  utility  programs  for  the   deployment  of  energy  efficiency,  demand  side  management,  and  distributed  generation.    State   commissions  ensure  safe,  reliable  and  affordable  electric  service  and  face  differing  demographics,   geographies,  and  market  structures,  and  what  is  appropriate  in  one  jurisdiction  is  not  appropriate  in   others.    While  the  role  of  State  commissions  is  somewhat  acknowledged  in  the  report,  none  of  the   recommendations  included  in  the  report  should  direct  State  commissions  to  do  any  more  than  “consider   the  adoption  of”  regulatory  policies  and  all  should  be  qualified  with  “protecting  consumers.”    Generally,   the  recommendation  section  as  directed  to  State  commissions  is  too  prescriptive.     With  regard  to  CHP  in  particular,    NARUC’s    resolutions  (attached)  stress  the  need  for  cost-­‐effectiveness   in  promoting  CHP  ,  as  well  as  the  need  to  protect  consumers  when  addressing  CHP  barriers  to  increased   use  of  CHP  related  to  standby  rate  design,  interconnection  and  traditional  utility  revenue  recovery   mechanisms.    Less  prescriptive  language  in  the  recommendation  section  would  better  reflect  these   needs.         After  reviewing  the  report,  we  believe  the  draft  includes  a  number  of  recommendations  that  can  further   these  important  goals  and  objectives.    Having  said  that,  we  are  substantially  concerned  with  several   aspects  of  the  current  draft  that  we  believe  would  undermine  those  goals  and  reduce  industrial   competiveness  and  energy  productivity.      To  wit:       • The  study,  incorrectly,  we  believe,  presumes  that  all  industrial  IEE  and  CHP  is  per  se  beneficial,   and  all  obstacles  to  increase  deployment  are  by  definition,  arbitrary,  meritless  and  should  be   eliminated  -­‐-­‐-­‐  such  is  clearly  not  the  case   • The  study  repeatedly  calls  the  absence  of  incentives  and  the  absence  of  mandates  “barriers”   that  DOE  should  address-­‐-­‐-­‐yet  cost-­‐effective  IEE  and  CHP  may  not  need  such  incentives  or   mandates   • It  calls  upon  States  to  establish  policies  that  provide    incentives  and  support  to  IEE  without  the   need  to  have  the  States  review  whether  or  not  the  IEE  is  cost  effective,  reliable,  and  supports   the  individual  goals  and  objectives  of  the  state,    including  fairness  to  all  consumers   • The  study  fails  to  make  clear  that  to  maximize  efficiency,  CHP  must  be  sized  to  support  process   thermal  load  and  as  a  result  most  often  does  not  generate  enough  excess  power  to  sell  to  the   grid  –  and,  conversely,  if  CHP  is  sized  to  generate  excess  power  for  sale,  or  provide  ancillary   services,  overall  CHP  efficiency  can  be  significantly  reduced.  (EPA  CHP  Project  Development   Handbook,  page  14  http://www.epa.gov/chp/documents/chp_handbook.pdf)   • The  study,  by  comparing  the  efficiency  of  existing  generation  with  state  of  the  art  CHP,  fails  to   make  clear  that  the  difference  in  efficiency  between  state  of  the  art  electric  generation  and  CHP   has  been  significantly  narrowed-­‐-­‐e.g.  new  natural  gas  combined  cycle  plants  with  a  60%  overall   efficiency     We  believe  cost  effective  IEE  and  CHP  can  bring  potential  benefits  to  consumers,  industrial   competiveness,  and  utilities,  and  we  support  efforts  to  increase  IEE  and  CHP.    However  these   benefits  will  only  be  realized  through  policies  that  encourage  cost-­‐effective  development,  do  not   unfairly  shift  costs  among  customers,  and  do  not  risk  degrading  electric  reliability  or  safety.    As   indicated  above,  we  do  not  believe  the  current  draft  of  the  report  has  met  this  requirement.     In  addition  to  the  above,  we  would  like  to  attach  by  reference  our  earlier  comments  this  past   summer.       Again  we  agree  with  and  support  the  goals  of  increasing  industrial  energy  efficiency;  increasing   system  reliability  and  resilience;  helping  industrial  customers  reduce  energy  cost  to  assist  in   increasing  U.S.  competiveness;  and  doing  so  without  the  need  to  have  subsidies  and  mandates  that   will  only  increase  cost  to  other  consumers  and  promote  sub  optimal  solutions.               /s/James  Bradford  Ramsay   James  Bradford  Ramsay   General  Counsel     /s/Holly  Rachel  Smith,  Esq.   Holly  Rachel  Smith,  Esq.   Assistant  General  Counsel     National  Association  of  Regulatory  Utility   Commissioners   1101  Vermont  Ave,  NW  Suite  200   Washington,  DC  20005   jramsay@naruc.org     hsmith@naruc.org     (202)  898-­‐1350     /s/David  L.  Mohre   David  L.  Mohre   Executive  Director,  Energy  &  Power  Division     National  Rural  Electric  Cooperative  Association   4301  Wilson  Blvd.   Arlington,  VA  22203   dave.mohre@nreca.gov     (703)  907-­‐5812     Respectfully  submitted,     /s/  Eric  Ackerman   Eric  Ackerman   Director,  Alternative  Regulation     Edison  Electric  Institute     701  Pennsylvania  Avenue,  NW     Washington,  DC  20004-­‐2696   eackerman@eei.org     (202)  508-­‐5000       State Activities States  with  Key  Activities  on  Net  Energy  Metering/Value  of   Distributed  Generation   Identified “Net Metering/Value of DG Hot Spots”: 39 States including D.C.   Summary  of  Key  State  Activities  on  NEM  and/or  Value  of  DG:  39  States  Including  D.C.     AZ   CA   Regulatory  workshops  on  value  of  DG/grid  &  rate  design  as  part  of  NEM  cost  shift  solution     Implementation  of  laws  on  rate  design,  NEM,  shared  solar  ▪  Interconnection  rules  ▪  Storage  mandate   interplay  w/NEM  &  value  of  grid     CO   CT   Regulatory  proceedings  on  RES  compliance,  NEM/value  of  DG       Implementation  of  energy  strategy  law  including    expanded  virtual  NEM  ▪  Continued  debate  over  RES   resource  eligibility  ▪  Policy  scrutiny  of  feed-­‐in  tariffs  ▪  Shared  solar  legislation     DC   IA   FL     Implementation  of  shared  renewables  law       Utilities  Board  notice  of  inquiry  on  DG  ▪  2014  state  Supreme  Court  ruling  on  3rd  party  financing     High-­‐profile  gubernatorial  race  could  put  renewables/NEM  issues  center  stage  ▪  Growing  pressures  to   increase  solar  penetration,  reduce  coal  reliance  in  Sunshine  State     GA   HI   Solar  mandate  implementation  ▪  Debate  on  3rd  party  financing,  shared  renewables     Dramatic  increase  in  solar  penetration  raises  operational  issues  ▪  PUC  poised  to  review  DG  issues   including  NEM  ▪  Legislation  on  RES,  NEM,  interconnection,  storage,  3rd  parties     IL   Rulemaking  on  NEM  changes  ▪  Continued  debate  on  RES  changes         1     IN   KS   KY   LA   Regulatory  proceeding  to  extend/modify  expiring  NIPSCO  feed-­‐in  tariff;  NEM  is  a  factor     Legislation  on  NEM  (cost/benefit  study,  lower  NEM  credits),  RES  (expand/reduce)     Legislation  on  NEM,  RES     Regulatory  proceeding  on  co-­‐ops  hitting  NEM  caps  ▪  Legislation  on  3rd  party  financing,  tax,  consumer   protection  issues  ▪  PSC  study  of  NEM  costs/benefits     ME   MD   MA   Legislation  on  DG  incentives,  FITs,  RES  changes,  shared  solar,  VOS     Recurring  legislative  efforts  to  expand  NEM  ▪  Legislation  on  community  renewables,  RES  expansion       Regulatory  expansion  of  RES  solar  carve-­‐out  ▪  Interconnection  rule  changes  ▪  Legislation  on  NEM  caps   ▪  Study  of  NEM  costs/benefits     MI   MN   Governor  proposals  on  RES  ▪  Interplay  of  DG,  retail  choice     Implementation  of  solar  carve-­‐out  law,  including  distribution  VOS  methodology  &  solar  garden   requirement  ▪  PUC  rule  changes  to  further  expand  NEM       MO   NV   NH   NJ   NM   NY   Legislation  on  VOS,  solar  rebates,  RES  changes  ▪  Implementation  of  law  on  solar  rebate  phase-­‐out     PUC  proceeding  on  NEM  costs/benefits;  study  to  be  completed  mid-­‐2014       Implementation  of  shared  renewables  ▪  Energy  Office  developing  state  energy  policy  w/DG  section     Implementation  of  Solar  Act  including  NEM  provisions  ▪  Value  of  DG  in  context  of  resiliency     Continued  debate  on  supply  diversity,  RES  compliance  ▪  Community  renewables  development     Extension  of  Governor’s  NY-­‐Sun  initiative  ▪  Legislation  on  NEM  expansion,  shared  renewables,  other   DG  grid  issues  ▪  PSC  to  consider  “Utility  2.0,”  including  NEM/DG/resiliency/business  model  issues       NC   Value  of  DG  in  context  of  PURPA  avoided  cost  ▪  Continuing  debate  on  RES  changes  ▪  Legislation  on  3rd   party  financing  ▪  Anticipated  regulatory  proceeding  on  NEM  changes     OH   OK   OR   PA   RI   SC   TN   TX   UT   VT   VA   WA   WI   PUC  seeks  utility  proposals  on  SFV  rate  design  to  align  w/state  DG  &  other  policies  ▪  RES  legislation     Legislation  addressing  NEM  cost  shift,  RES     Implementation  of  law  requiring  PUC  to  study  VOS  ▪  Governor  seeks  more  rooftop  solar  investment       PUC  NOPR  on  NEM  rule  changes  in  context  of  retail  choice     Legislation  on  DG  procurement/financing     PSC  renewables  policy  review  including  NEM  ▪  Legislation  on  3rd  party  financing,  NEM,  rate  design     Advocacy  for  expanded  TVA  green  power  program  (eliminate  NEM  caps,  new  value  of  DG  approach)     No  statewide  NEM  but  recurring  efforts  to  institute  ▪  Austin  has  VOS  tariff  but  so  far  not  transferable     PacifiCorp  rate  case  addressing  NEM  cost  shift,  fixed  cost  recovery  ▪  Legislation  on  NEM  costs/benefits       Legislation  to  raise  NEM  caps  ▪  Regulatory  NEM  proceedings  as  co-­‐ops  hit  existing  caps     rd Implementation  of  laws  on  3  party  PPA  pilot  for  solar/wind  and  agricultural  NEM       UTC  investigation  under  way  of  costs/benefits  of  DG,  effect  of  DG  on  utility  provision  of  service     Muni  3rd  party  financing  deal;  possible  legislation  on  statewide  application  ▪  Legislation  on  RES       March  2014   2       Timeline  of  Key  State  Activities  on  Net  Energy  Metering   March  10,  2014     Note:  This  timeline  reflects  a  cross-­‐section  of  state  activity  and  is  not  comprehensive.  The  material  and  research  is  based  on  media  reports,   state  regulatory  and  legislative  documents,  Stateside  Associates  services,  and  company  input.    We  welcome  any  information  you  have   that  is  relative  to  the  activity  in  your  state  so  that  this  document  remains  current.  Please  send  updates  to  Martha  Rowley  at   mrowley@eei.org  .  Thank  you.     ARIZONA   Rates  and  Regulation   • • • Utility  compliance  with  DG  requirements  of  the  state  RES,  Docket  No.  E-­‐01345A-­‐10-­‐0394,  et  al.       o February  6,  2014:    The  Arizona  Corporation  Commission  (ACC)  voted  unanimously  to  reopen   renewable  energy  standard  (RES)  rules  to  develop  a  new  methodology  for  utility  compliance  with   the  DG  carve-­‐out  that  does  not  rely  solely  on  renewable  energy  certificates  (RECs).  The  action   reflects  the  changing  DG  market  and  the  fact  that  the  commission  previously  eliminated  the   mechanism  by  which  utilities  can  acquire  RECs  from  third  parties.  The  ACC  also  agreed  to  allow   utilities  to  seek  one-­‐year  waivers  of  compliance  with  the  DG  carve-­‐out  while  it  develops  a  longer   term  compliance  solution.  A  new  rulemaking  docket  will  be  opened.  The  state  RES  target  is  15%  by   2025,  with  30%  of  that  from  distributed  energy  technologies. o February  26,  2014:  Written  order  issued. o April  15,  2014:  Staff  to  file  proposed  new  rules. o May  2014:  Commission  to  address  notice  of  proposed  rulemaking  at  its  May  open  meeting  or  as   soon  as  practical  thereafter.   Investigation  of  Value  and  Cost  of  DG,  including  NEM,  Docket  No.  E-­‐00000J-­‐14-­‐0023   o January  24,  2014:  The  ACC  opened  a  generic  docket  to  gather  stakeholder  input  to  inform   commission  policy  on  the  value  and  costs  that  DG  brings  to  the  grid.   o January  27,  2014:  ACC  staff  posted  a  letter  to  stakeholders  with  a  list  of  potential  DG  values  and   costs.  The  letter  seeks  comments  on  each  listed  value/cost  and  on  any  other  DG-­‐related  issues  that   should  be  considered  in  the  docket.   o February  14,  2014:  Comments  due.     Innovations  and  Technological  Developments,  Docket  No.  E-­‐00000J-­‐13-­‐0375.     o September  11,  2013:  The  ACC  voted  to  close  its  inquiry  on  electric  retail  competition,  at  which  time   Commissioner  Bob  Burns  successfully  moved  to  open  a  new  docket  to  examine  the  impact  of   innovation  and  technological  development  on  the  utility  business  model.   o November  4,  2013:  Commissioner  Burns  issued  a  memorandum  opening  the  docket.  The  memo   cites  concerns  about  the  effect  of  falling  technology  prices  such  that  more  entities  will  be  enabled  to   use  technologies  to  go  off  the  grid,  leaving  remaining  ratepayers  to  pick  up  the  cost  of  the  grid.     Timeline of Key State Activities on Net Energy Metering 2   o • December  5,  2013:  Burns  memo  to  commissioners  and  stakeholders  proposing  scoping.  Among   suggested  areas  of  review  are:  1)  Distributed  supply  and  storage  resources  enabling  customer  self-­‐ supply,  including  customer  shared  generation  (virtual  net  metering),  and  2)  microgrids.     ! January  17,  2014:  Comments  due.     Arizona  Public  Service  net  metering  proposals,  Docket  No.  E-­‐01345A-­‐13-­‐0248   o July  12,  2013:  APS  filed  a  proposal  with  the  ACC  outlining  two  options  for  reducing  cost  shift   resulting  from  net  metering:  1)  Replace  current  net  metering  by  requiring  new  solar  DG  customers   to  take  service  under  existing  residential  time  of  use  rate  (ECT-­‐2)  that  would  impose  a  higher  charge   for  basic  service  and  for  demand  (and  recover  about  70  percent  of  utility’s  costs),  or  2)  create  a   feed-­‐in  tariff  (FIT)-­‐like  mechanism  under  which  a  customer  is  charged  the  utility  rate  for  all  power  it   uses,  reduced  by  the  wholesale  value  of  all  solar  power  it  generates;  requires  value  of  solar  (VOS)   analysis.    In  preparation  for  the  filing,  APS  hosted  a  multi-­‐session  technical  workshop.   o July-­‐September  2013:  The  Alliance  for  Solar  Choice  (TASC),  Solar  Energy  Industries  Association   (SEIA),  and  Interstate  Renewable  Energy  Council  (IREC)  filed  protests.  SEIA  moved  to  dismiss.  IREC   urged  that  consideration  be  deferred  until  a  future  general  rate  case.  APS  filed  responses  in   opposition.  Numerous  customer  and  other  comments  were  filed  in  support  of  and  opposition  to  the   APS  proposals.   o September  30,  2013:  Staff  filed  a  proposed  order  recommending  that  the  APS  proposals  not  be   approved  and  that  consideration  of  the  NEM  cost  shift  issue  be  deferred  until  a  future  general  rate   case.  Any  cost  shift  issue  created  by  NEM  is  fundamentally  a  rate  design  issue,  staff  said,   recommending  that  the  ACC  hold  stakeholder  workshops  to  help  inform  future  policy  on  the  value   of  DG.  Staff  also  offered  two  bridge  solutions  in  the  event  the  commission  wants  to  act  sooner.  Both   staff  alternatives  would  make  adjustments  to  the  existing  lost  fixed  cost  recovery  mechanism.  The   next  APS  general  rate  case  is  expected  to  be  filed  in  June  2015.     o October  17,  2013:  Commissioner  Pierce  issued  a  letter  seeking  more  information  on  the  staff   alternatives.  He  said  he  has  no  position  yet  on  the  issues  presented  by  the  case.     o October  30,  2013:  Commissioner  Burns  issued  a  letter  seeking  more  information  from  utilities  and   solar  providers/related  organizations  on  how  much  money  they  have  spent  on  NEM  public  relations   campaigns.  The  Residential  Utility  Consumer  Office  (RUCO)  filed  comments  and  a  proposed  order   providing  for  phasing  in  a  market-­‐based  fixed  charge  on  new  solar  customer  bills  to  address  the  cost   shift  issue.  RUCO  also  recommended  that  the  commission  open  a  docket  to  address  broader  issues   related  to  the  cost  shift.   o November  4,  2013:  Staff-­‐suggested  deadline  for  comments  on  proposed  order.   o November  6,  2013:  Comments  due  in  response  to  Pierce  letter  and  to  Burns  letter.   o November  13-­‐14,  2013:  The  AZ  CC  voted  3-­‐2  to  adopt  a  rate  charge  of  $0.70  per  kW,  estimated  to   be  $4.90  per  month  for  typical  installations,  for  new  rooftop  solar  customers  as  of  January  1,  2014.   Revenue  will  be  credited  back  to  non-­‐DG  customers.  Existing  customers  are  grandfathered  until  the   next  rate  case.  New  customers  must  sign  an  affidavit  stating  that  they  recognize  that  the  surcharge   could  change  in  the  future.  The  surcharge  will  be  reconsidered  in  the  next  APS  general  rate  case,   which  the  AZ  CC  directed  the  company  to  file  in  2015.  The  commission  acknowledged  the  cost  shift   and  value  of  the  grid  and  called  for  workshops  to  look  at  broader  rate  design  issues.     o December  3,  2013:  Final  decision  issued.     o January  1,  2014:  Rate  change  effective.   Timeline of Key State Activities on Net Energy Metering 3   o o January  27,  2014:  The  commission  directed  stakeholders  to  a  new  docket  on  value  and  costs  of  DG   to  the  grid.  (See  item  above  for  Docket  No.  E-­‐00000J-­‐13-­‐0375.)   January  2014:  Numerous  comments  from  the  public  continue  to  be  filed  in  the  docket,  many  of   them  using  the  same  language  urging  protection  of  ratepayers  not  participating  in  DG.   Legislation   • H.C.R.  2032:  Proposes  a  constitutional  amendment  under  which  utilities  would  be  required  to   interconnect  with  any  net  metered  retail  customer  regardless  of  size  of  the  NEM  facility,  prohibited   from  charging  any  additional  fees  or  charges  not  imposed  on  non-­‐net  metered  customers,  and  required   to  compensate  net  metered  customers  at  the  retail  rate  for  excess  generation.  New  meters  would  be   required  to  have  two-­‐way  capability.   o February  10,  2014:  Introduced.   ARKANSAS   Rates  and  Regulation   • Generic  rulemaking  on  changes  to  net  metering  rules,  Docket  No.  12-­‐060-­‐R   o August  8,  2012:  The  AR  Public  Service  Commission  (PSC)  issued  an  order  opening  a  proceeding  to   consider  changes  to  net  metering  rules  addressing  aggregation  and  other  issues.   o May  15,  2013:  The  PSC  issued  an  order  proposing  amendments  to  rules.   o June  21,  2013:  Hearing  held.   o September  3,  2013:  The  PSC  issued  an  order  approving  proposed  rule  amendments  that  expand  the   existing  net  metering  program  by  allowing  meter  aggregation.   o Excerpt  from  order:  “Given  the    nascent  state  of  distributed  renewable  generation  in   Arkansas  at  this  time,  the  common  agreement  that  its  current  cost  impacts  are  negligible,   the  paucity  of  the  record  regarding  the  precise  potential  future  economic  impacts  of  net   metering,  and  the  statutory  directive  to  promote  the  growth  of  net  metering  and  the  public   policy  benefits  thereof,  the  Commission  remains  convinced  that  it  is  unnecessary  and   premature  at  this  time  to  further  delay  the  promotion  of  net  metering  in  an  attempt  to   translate  the  exact  economic  impact  of  potential  expanded  net  metering  into  new   ratemaking  mechanisms.  Further,  any  party  is  at  liberty  to  raise  the  issue  of  subsidies  within   a  rate  case  or  in  other  proceedings,  and  the  statute  provides  sufficient  guidance  for  the   consideration  of  that  issue.”     Legislation   • H.B.  2019  (2013):  Allows  customers  to  be  credited  during  their  next  billing  cycle  for  net  excess   generation  equal  to  four  months  of  average  usage.  The  PSC  is  authorized  to  allow  utilities  to  assess  net-­‐ metered  customers  a  greater  fee  or  charge  of  any  type,  if  the  electric  utility's  direct  costs  of   interconnection  and  administration  of  net  metering  outweigh  the  distribution  system,  environmental,   and  public  policy  benefits  of  allocating  the  costs  among  the  electric  utility's  entire  customer  base.   o April  12,  2013:  Enacted.   Timeline of Key State Activities on Net Energy Metering 4   CALIFORNIA   Rates  and  Regulation   • • • Implementation  of  portions  of  S.B.  43  (below)  addressing  shared  renewables,  currently  being   addressed  in  the  context  of  individual  utility  filings  in  consolidated  Docket  No.  A12-­‐01-­‐008.  The  CA   Public  Utilities  Commission  (CPUC)  may  open  a  separate  docket.  Schedule  for  A12-­‐01-­‐008:   o Second  quarter  2014:  Proposed  decision.   o June  30,  2014:  CPUC  decision.     PG&E  general  rate  case,  Docket  No.  A12-­‐11-­‐009.     o November  15,  2012:  Filed  with  the  CPUC.  PG&E  has  requested  a  change  in  its  A6  rate,  which  applies   time  of  use  (TOU)  pricing  without  a  demand  charge  to  nonresidential  customers  up  to  500  kW.   PG&E  is  seeking  to  limit  customer  capacity  to  75  kW.  The  CPUC’s  Office  of  Ratepayer  Advocate  has   recommended  a  20  kW  limit.  Solar  advocates  argue  that  setting  a  lower  capacity  limit  as  proposed   would  disrupt  the  solar  market  in  the  state  and  particularly  harm  schools  and  local  government   entities.     o March  15,  2014:  Commission  decision  expected.     PG&E  2013  rate  design  window  proceeding,  Docket  No.  A12-­‐12-­‐002   o December  3,  2012:  PG&E  filed  in  compliance  with  a  2011  CPUC  decision,  which  required  PG&E  to  file   a  demand  charge  cost  study  and  evaluation  of  “Option  R”  for  commercial  and  industrial  with  solar   generation  that  exceeds  10%  of  their  demand.  Option  R  would  change  rates  to  collect  a  smaller   portion  of  generation  and  distribution  capacity  through  the  demand  charge  and  more  from  the   energy  charge.   o May  10  and  June  14,  2013:  Intervenor  testimony  and  rebuttal  testimony,  respectively.   o July  8-­‐12,  2013:  Evidentiary  hearing.   o August  2  and  August  23,  2013:  Opening  briefs  and  reply  briefs,  respectively.  SEIA  proposed  an   optional  Option  R  that  would  eliminate  about  half  the  revenue  currently  collected  in  demand   charges  under  Schedules  E-­‐19  and  E-­‐20  and  increase  energy  charges  that  are  more  readily  avoided   by  solar  customers.  The  proposed  changes  also  would  allow  those  NEM  customers  with  significant   power  exports  to  the  grid  to  receive  much  larger  payments  for  exports  during  the  entire  summer   on-­‐peak  TOU  period.  PG&E  urged  the  CPUC  to  reject  the  proposal,  saying  it  violates  longtime  CPUC   policy  in  support  of  demand  charges  for  large  customers,  is  not  cost-­‐justified,  and  would  create   unneeded  new  cost  shifts  at  a  time  when  solar  customers  are  already  being  subsidized  by  other   customers.     o November  8,  2013:  PG&E  filed  a  motion  to  take  official  notice  of  the  CPUC’s  October  28,  2013,  NEM   study  prepared  by  E3.  The  report  found  that  benefits  to  non-­‐solar  ratepayers  were  less  than  the   costs  of  the  solar  installations  to  other  customers.  PG&E  said  a  key  issue  in  the  case  is  the  cost  and   rate  impact  that  result  when  large  C&I  customers  install  solar.   o November  20,  2013:  SEIA  filed  a  response  in  opposition  to  PG&E’s  motion,  saying  it  is  procedurally   invalid  and  that  further  hearings  would  be  required  to  interpret  and  test  the  validity  of  study  results.   o December  2,  2013:  PG&E  filed  a  reply,  saying  SEIA’s  arguments  are  frivolous  and  should  be  rejected,   and  further  hearings  are  not  needed.   o August  2014:  Expected  PUC  decision.   Timeline of Key State Activities on Net Energy Metering 5   • •   SDG&E  2011  rate  case  (Phase  2  –  cost  allocation/rate  design),  Docket  No.  A11-­‐10-­‐002   o January  16,  2014:  The  CPUC  issued  a  decision  that,  among  other  things,  denied  without  prejudice   SDG&E’s  proposed  basic  service  fee  (BSF)  of  $3/mo.  to  recover  a  portion  of  fixed  distribution  costs.   The  fee  would  replace  the  current  minimum  bill,  which  is  applied  at  a  rate  of  $0.17/day  (approx.   $5.10/mo.)  The  BSF  was  opposed  by  the  CPUC’s  Office  of  Ratepayer  Advocate,  TURN,  Vote  Solar  and   other  parties.  The  CPUC  said  that  since  the  passage  of  AB  327,  it  is  uncertain  whether  the  legal   arguments  against  the  BSF  still  apply.  Among  the  legal  arguments  was  that  the  proposal  would  raise   rates  too  much  for  lower  income  customers.  The  CPUC  said  it  is  more  appropriate  to  consider  the   proposed  BSF  in  the  ongoing  rulemaking  proceeding  addressing  rate  design  (Docket  No.  R12-­‐06-­‐013,   below).  This  would  allow  evaluation  of  whether  this  type  of  fee  should  be  adopted  for  all  electric   utilities  in  a  more  comprehensive  manner  rather  than  on  a  utility-­‐by-­‐utility  basis,  the  CPUC  said.       Generic  rulemaking  on  rate  design/implementation  of  AB  327,  Docket  No.  R12-­‐06-­‐013   o June  28,  2012:  The  CPUC  instituted  a  rulemaking  to  conduct  a  comprehensive  study  of  investor-­‐ owned  utility  rate  design  structures,  including  residential  tier  structure,  and  meet  other  statutory   obligations.  The  CPUC  is  looking  at  whether  the  current  rate  structure  is  meeting  state  policy   objectives,  including  “increased  usage  of  distributed  solar  by  end-­‐use  customers”  through  the   California  Solar  Initiative  and  NEM  policies.  Each  major  utility  submitted  a  rate  design  proposal  prior   to  enactment  of  A.B.  327.  The  CPUC  has  not  yet  indicated  whether  it  will  open  a  new  docket  to   address  other  A.B.  327  issues  or  whether  the  issues  will  be  addressed  in  this  docket.   Phase  1   o o o o o o o o o o o January  6,  2014:  Amended  scope  memo  and  ruling:  1)  Issues  the  Energy  Division  (ED)  “Staff  Proposal   for  Residential  Rate  Reform  in  Compliance  with  Rulemaking  12-­‐06-­‐013  and  Assembly  Bill  327,”  2)   amends  the  scope  of  Phase  1  and  re-­‐categorizes  it  as  ratesetting,  and  3)  sets  the  category  for  Phase   2  of  this  proceeding  as  ratesetting.  The  ED  proposal  aligns  to  a  large  extent  with  utility  positions  but   key  differences  include  the  ED’s  support  for  mandatory  TOU  rates  and  its  apparent  equating  of   customer  charges  with  minimum  bills.  The  ED  said  choosing  an  approach  of  applying  a  customer   charge  (as  allowed  by  AB  327  of  up  to  $10/mo.  for  non-­‐low  income  customers)  or  minimum  bill  is  a   policy  choice  for  the  CPUC  to  decide.   January  8,  2014:  Prehearing  conference.   January  31,  2014:  General  corrections  (extended  schedule).   February  13,  2014:  Assigned  commissioner  ruling  issued  directing  PG&E,  SDG&E  and  SCE  to  file   residential  rate  change  proposals  for  the  period  January  1,  2015,  through  December  31,  2018.   Utilities  must  provide  an  update  inventory  of  residential  tariffs/issues  to  be  resolved  in  this   proceeding  and  answer  a  set  of  rate  design  questions.   February  14,  2014:  Rate  issue  inventory.   February  28,  2014:  Utility  rate  change  proposals  and  related  testimony.   March  10,  2014:  Prehearing  statements  to  identify  and  refine  factual  and  legal  issues  to  be  resolved.   March  14,  2014:  Prehearing  conference.   March  21,  2014:  Supplemental  filings  answering  remaining  rate  design  questions.   March  31,  2014:  Phase  1  scoping  memo.   April  11,  2014:  Supplemental  utility  testimony,  if  necessary.   Timeline of Key State Activities on Net Energy Metering 6   o o o o o o o May  16,  2014:  Intervenor  testimony.   May  30,  2014:  Rebuttal  testimony.   June/July  2014:  Evidentiary  hearings.   August  15,  2014:  Opening  briefs.   August  29,  2014:  Reply  briefs.   October  21,  2014:  Proposed  decision.   By  end  of  2014:  Final  decision  expected.   Phase  2     o o o o o o o o o o o o o o o o o o o   October  25,  2013:  Assigned  commissioner  ruling  invites  utilities  to  file  applications  for  interim   residential  rate  changes  under  AB  327  and  opens  a  new  Phase  2  of  the  proceeding.  Phase  1  will   continue  to  examine  residential  rate  designs  that  will  result  in  a  long-­‐term  policy  decision.  Phase  2   will  proceed  concurrently  with  Phase  1  to  address  interim  rate  designs  that  better  align  residential   prices  with  cost  to  serve  and  other  policy  objectives.  Rate  design  changes  should  be  “modest,  easy   to  evaluate,  and  consistent  with  AB  327,”  the  ruling  said.   November  8,  2013:  Comments  due  on  procedural  schedule  and  need  for  evidentiary  hearings.  The   Alliance  for  Solar  Choice  (TASC)  filed  comments.   November  22,  2013:  Utilities  filed  interim  rate  applications.   December  5,  2013:  Pre-­‐hearing  conference.   December  23,  2013:  Protests  due.  TASC  and  the  Interstate  Renewable  Energy  Council  (IREC)  filed   protests  against  utility  interim  rate  design  proposals.  TASC  and  IREC  said  the  proposals  would   substantially  reduce  or  eliminate  the  savings  by  solar  customers.  TASC  said  the  proposals  could  have   a  “devastating  impact”  on  the  solar  industry.  IREC  said  its  initial  analysis  shows  that  increases  in   lower  tier  rates  and  corresponding  decreases  in  upper  tier  rates,  as  proposed,  would  result  in  20-­‐ 30%  bill  increases  for  NEM  customers.  IREC  spoke  to  the  general  significance  of  the  proposals,   saying  “they  begin  to  shift  to  the  new  rate  paradigm  and  essentially  create  the  new  ‘baseline’  or   status  quo  from  which  future  [general  rate  cases]  will  start.”     January  3,  2014:  Replies  filed.   January  8,  2014:  Prehearing  conference.   January  10,  2014:  Motions  for  evidentiary  hearing  due.   January  24,  2014:  Phase  2  scoping  memo  issued  with  new  schedule.     January  28,  2014:  Simplified  utility  rate  design  proposals  and  supplemental  utility  testimony.   February  5,  2014:  Vote  Solar  presented  a  petition  to  the  CPUC  with  approx.  50,000  signatures.  The   petition  supports  30-­‐year  NEM  grandfathering.   February  25,  2014:  ALJ  issued  ruling  amending  procedural  schedule.     March  4,  2014:  Anticipated  SCE  motion  to  adopt  settlement.   March  5,  2014:  Intervenor  testimony.  Anticipated  PG&E  motion  to  adopt  settlement.   March  12,  2014:  Rebuttal  testimony.   March  24-­‐26,  2014:  Evidentiary  hearing.   April  7,  2014:  Opening  briefs.   April  16,  2014:  Reply  briefs.   May  9,  2014:  Proposed  decision.       Timeline of Key State Activities on Net Energy Metering 7   • •   Generic  rulemaking  docket  on  NEM,  storage,  grandfathering,  other  DG  issues,  Docket  No.  R12-­‐11-­‐005   o November  15,  2012:  The  CPUC  opened  a  new  rulemaking  to  continue  DG  work,  including  NEM   issues,  from  previous  dockets  (including  R10-­‐05-­‐004  below).     o October  17,  2013:  Assigned  commissioner  ruling  seeks  comment  on  a  proposal  to  give  storage   devices  paired  with  renewable  generation  facilities  the  same  benefits  the  renewable  facilities   receive  under  NEM  tariffs  until  at  least  the  end  of  2015.  Utilities  must  submit  reports  by  July  1,   2015,  on  lost  revenues  resulting  from  this  treatment.  Based  on  information  in  the  reports,  the  CPUC   could  choose  to  amend  or  extend  the  program.  A  concern  has  been  raised  by  utilities  that  energy   from  batteries  sold  back  to  the  grid  cannot  be  verified  as  renewable-­‐sourced.   ! November  1,  2013:  Comments  due  under  extended  schedule.   ! November  8,  2013:  Reply  comments  due.   ! January  6,  2014:  Assigned  commissioner  ruling  seeks  additional  comment  on  safety   considerations  specific  to  storage  devices.   ! January  8,  2014:  Comments  due.  Reply  comments  not  requested.   o November  27,  2013:  Assigned  commissioner  ruling  seeks  comments  on  implementation  of  NEM   transition  period  under  AB  327.  The  law  provides  that  customers  who  were  net  metered  prior  to   reaching  the  statutory  NEM  cap  by  July  1,  2017,  are  protected  for  a  transition  period  to  be   determined  by  the  CPUC.  The  governor  in  his  signing  message  for  AB  327  called  for  the  CPUC  to   consider  the  entire  lifespan  of  customer  solar  systems  whereas  the  law  specifies  that  the   commission  consider  a  reasonable  expected  payback  period.   ! December  3,  2013:  Intervention  filed  by  TASC.  Other  solar  advocates  such  as  CASEIA  already  are   parties.   ! December  13,  2103:  Comments  due  (extended  schedule).  Solar  advocates  supported  the   governor’s  signing  message  (above).  Consumer  representatives  recommended  relatively  low   payback  periods  (e.g.,  7  years)  while  the  utilities  generally  came  in  around  10  years.   ! December  23,  2013:  Reply  comments  due  (extended  schedule).   ! February  20,  2014:  Proposed  decision  issued  that  would  set  20-­‐year  transition  period.     ! March  12,  2014:  Comments  due  on  proposed  decision.   ! March  17,  2014:  Reply  comments  due.   ! March  27,  2014:  CPUC  open  meeting.  The  proposed  decision  may  be  discussed.   ! March  31,  2014:  Statutory  deadline  for  final  decision.       Generic  rulemaking  on  DG  interconnection,  Docket  No.  R11-­‐09-­‐011   o September  22,  2011:  The  CPUC  proposed  amendments  to  Rule  21  to  ensure  interconnections  of  DG   and  storage  facilities  are  timely,  nondiscriminatory,  cost-­‐effective  and  transparent.   o As  of  October  21,  2013:  Parties  filing  comments.  No  events  scheduled  for  fall  2013.   o February  5,  2014:  ALJ  proposed  decision  issued  that  would  establish  new  utility  Distribution  Group   Study  Process  and  new  forms  for  handling  interconnection  applications  and  related  cost  allocation.   o February  19,  2014:  Prehearing  conference  held  to  discuss  report,  “Smart  Inverter  Working  Group   Recommendations,”  issued  January  14.  Report  is  Attachment  1  at  this  location:   http://docs.cpuc.ca.gov/SearchRes.aspx?DocFormat=ALL&DocID=87262222     o February  25,  2014:  Comments  due  on  proposed  decision.   o March  13,  2014:  Open  commission  meeting.  Proposed  decision  expected  to  be  discussed.   Timeline of Key State Activities on Net Energy Metering 8   •   Generic  rulemaking  on  NEM/other  DG  issues,  Docket  No.  R10-­‐05-­‐004  CLOSED   o May  24,  2012:  The  CPUC  effectively  doubled  the  NEM  cap  and  required  study  of  the  costs/benefits   of  NEM.     o September  26,  2013:  The  CPUC  issued  its  much-­‐anticipated  report,  California  Net  Energy  Metering   Ratepayer  Impacts  Evaluation.  Required  by  A.B.  2514  (2012),  the  319-­‐page  report  by  consultant  E3   concludes  that  state’s  NEM  program  could  end  up  costing  other  California  ratepayers  $1.1  billion  a   year  by  2020  (in  2012$).  The  report  identifies  California's  flawed  inclining  block  residential  rate   design  as  the  primary  source  of  this  rate  inequity  where  the  levelized  net  cost  reaches  $0.20  per   kWh  generated.  The  report's  conclusions  support  the  position  taken  by  SCE  and  others  that  the   CPUC  needs  to  re-­‐design  both  residential  rates  and  the  NEM  program,  both  of  which  are  authorized   by  A.B.  327.  The  report  is  located  at:  http://www.cpuc.ca.gov/NR/rdonlyres/BD9EAD36-­‐7648-­‐430B-­‐ A692-­‐8760FA186861/0/CPUCNEMDraftReport92613.pdf     o September  27,  2013:  The  CPUC  held  a  workshop  to  discuss  the  report.     o October  10,  2013:  Comments  due.   o November  13,  2013:  The  CPUC  issued  an  order  vacating  its  May  2012  order,  dismissing  applications   for  rehearing  as  moot,  and  closing  the  proceeding  in  light  of  the  recent  enactment  of  A.B.  327.  The   PUC  said  A.B.  327  addresses  issues  resolved  in  its  earlier  decision  and  that  it  will  administer  the  NEM   program  in  accord  with  the  new  law.   Legislation   • A.B.  2649:  Would  allow  a  U.S.  military  installation  to  exceed  1  MW  limitation  on  customer-­‐generators  if   the  total  capacity  of  all  renewable  generation  facilities  on  the  installation  does  not  exceed  50%  of  the   highest  daily  peak  demand  at  that  installation  for  the  preceding  calendar  year.  Each  physically  separate   and  distinct  building  within  privatized  residential  housing  communities  on  contiguous  military  properties   would  be  deemed  a  separate  premise  for  purposes  of  the  1  MW  capacity  limitation. o February  21,  2014:  Introduced. • A.B.  327  (2013):  Authorizes  the  CPUC  to  restructure  rate  design  for  residential  electric  customers,  create   a  new  NEM  program,  and  require  the  procurement  of  eligible  renewable  energy  resources  in  amounts   greater  than  what  is  required  in  the  state  renewable  electricity  standard  (RES)  statute.  The  bill:   ! Repeals  limitations  on  residential  rate  increases  including  low-­‐income  rates  and  authorizes   the  CPUC  to  approve  new  or  expanded  fixed  charges  up  to  $10/mo.  ($5/mo.  for  low-­‐ income),  with  increases  tied  to  CPI.  The  CPUC  is  allowed  to  consider  minimum  bill  as  an   alternative  to  fixed  charges. ! Authorizes  the  CPUC  to  approve  for  each  utility  default  residential  rates  based  on  time-­‐of-­‐ use  rates.  Residential  customers  could  opt  to  decline  such  pricing  and  continue  to  pay  fixed   rates.  Other  provisions  are  aimed  at  protecting  vulnerable  customers  in  hot  climate  zones   from  unreasonable  hardship. ! Requires  utilities  to  provide  NEM  to  additional  customer  generators  through  December  31,   2016,  or  until  the  utility  has  made  a  specified  amount  of  generating  capacity  available  to   customer  generators,  whichever  occurs  first.  The  CPUC  must  develop  by  July  1,  2015,  a   standard  contract  or  tariff  for  NEM  with  no  participation  limit.  The  standard  contract  or   tariff  must  be  based  on  costs/benefits  received  by  non-­‐participating  customers  and  ensure   Timeline of Key State Activities on Net Energy Metering 9   o o o nonparticipant  ratepayer  indifference.  Those  receiving  service  under  current  tariffs  would   be  grandfathered  through  December  31,  2020.   ! Requires  that  utilities  file  by  July  1,  2015,  a  distribution  resources  plan  proposal  to  identify   optimal  locations  for  the  deployment  of  distributed  resources.   ! Requires  the  CPUC  to  establish  an  RES  requiring  all  retail  sellers  to  procure  eligible   renewable  energy  resources  at  specified  percentages  of  the  total  kWh  sold  to  their  retail   end-­‐customers  during  specified  compliance  periods.  Requires  each  local  publicly  owned   electric  utility  to  procure  eligible  renewable  energy  resources  to  achieve  targets.  Authorizes   the  CPUC  to  require  a  retail  seller  to  procure  eligible  renewable  energy  resources  in  excess   of  the  statutory  requirement.  Allows  the  CPUC  to  suspend  the  requirement  for  the  inclusive   periods  of  January  1,  2014  to  December  31,  2016  and  January  1,  2017  to  December  31,   2020,  until  the  state's  unemployment  rate  is  at  or  below  5.5%  for  4  consecutive  quarters. May  23,  2013:  Passed  Assembly  on  66-­‐4  vote. September  9,  2013:  Passed  Senate  on  33-­‐5  vote. October  7,  2013:  Signed  by  Governor.  In  his  signing  message,  the  Governor  encouraged  the  CPUC  to   decide  to  grandfather  existing  customers  for  the  expected  life  span  of  their  solar  systems,  which   goes  beyond  A.B.  327  grandfathering  provisions.   http://gov.ca.gov/docs/AB_327_2013_Signing_Message.pdf     • S.B.  43  (2013):  Provides  for  creation  of  the  Green  Tariff  Shared  Renewables  Program.  Electrical   corporations  with  100,000  or  more  customers  must  file  with  the  CPUC  an  application  requesting   approval  of  a  program  that  would  enable  ratepayers  such  as  renters  who  cannot  install  their  own  DG  to   participate  directly  in  offsite  electrical  generation  facilities  that  use  eligible  renewable  energy  resources.     o May  30,  2013:  Passed  Senate  on  27-­‐9  vote.   o September  11,  2013:  Passed  Assembly  on  53-­‐22  vote.   o September  28,  2013:  Signed  by  the  Governor.     Other  Policy  Initiatives   • CEC  proceeding  on  DG  integration  analysis,  Docket  No.    13-­‐IEP-­‐1H   o The  California  Energy  Commission  (CEC)  contracted  with  Navigant  Consulting  to  examine  costs  and   impacts  of  increased  DG  penetration  levels  on  a  utility  electricity  system.  CEC  partnered  with   Southern  California  Edison  to  use  its  system  for  the  study.  The  initiative  grew  out  of  an  SCE  study,   The  Impact  of  Localized  Energy  Resources  on  Southern  California  Edison’s  Transmission  and   Distribution  System,  May  2012,  and  Gov.  Brown’s  Clean  Energy  Jobs  Plan  setting  a  goal  of  12,000   MW  of  localized  energy  development  in  California  by  2020.   o August   22,   2013:   Preliminary   results   presented   at   CEC   staff   workshop.   Presentations   located   at:   http://www.energy.ca.gov/2013_energypolicy/documents/2013-­‐08-­‐22_workshop/presentations/     o As  of  November  1,  2013:  The  report  is  in  draft  final  stage  and  expected  to  be  released  soon.   o December  3,  2013:  Final  consultant  report  released.  Excerpt  from  abstract:  “This  study  validated   Southern  California  Edison’s  approach  and  concluded  that  the  cost  to  integrate  localized  renewable   energy  resources  depends  highly  upon  locational  factors  for  both  the  distribution  and  transmission   systems.  Additionally,  it  concludes  that  policies  to  guide  projects  to  areas  better  equipped  to   accommodate  renewable  distributed  generation  can  significantly  reduce  integration  costs.  The   Timeline of Key State Activities on Net Energy Metering 10   Energy  Commission  considers  this  study  a  first  step  toward  the  2012  Integrated  Energy  Policy  Report   Update  goals  of  identifying  preferred  areas  for  renewable  distributed  generation  and  minimizing   interconnection  and  integration  costs  and  requirements.”     • CEC  proceeding  on  petition  for  societal  cost-­‐benefit  evaluation  of  California’s  NEM  program,  Docket   No.  13-­‐IEP-­‐1.  The  petition  is  part  of  the  docket  on  the  2013  Integrated  Energy  Policy  Report  (IEPR).  The   CEC  adopts  and  IEPR  every  two  years  and  an  update  every  other  year.     o Petition  by  joint  coalition,  comments,  and  other  docket  materials  are  available  at:   http://www.energy.ca.gov/2013_energypolicy/documents/     • June  7,  2013:  CEC  issued  notice  requesting  comments  on  joint  petition.   • June  28,  2013:  Comments  due.   o July  15,  2013:  Reply  comments  due.       o January  15,  2013:  2013  IEPR  adopted.  Final  report  is  available  at:   http://www.energy.ca.gov/2013_energypolicy/     COLORADO   Rates  and  Regulation   • Xcel  Energy  2014  RES  Compliance  Plan,  Docket  No.  13A-­‐0836E   o July  24,  2013:  Xcel  Energy  filed  with  the  CO  Public  Utilities  Commission  (PUC)  its  2014  RES   http://infocastinc.com/events/ca-­‐energy13  compliance  plan.  In  its  plan,  the  company  proposes:  1)   Achieving  transparency  by  including  the  cost  for  net  metering  of  new  installations  in  the  existing  RES   adjustment  mechanism  while  at  same  time  crediting  an  equal  amount  to  the  electric  commodity   adjustment,  resulting  in  continued  socialization  and  recovery  of  costs  from  all  customers;  2)  If  the   transparency  proposal  is  approved,  acquire  42.5  MW  to  comply  with  the  state  RES;  3)  If  the   transparency  proposal  is  rejected,  acquire  12.5  MW  for  achieving  “minimum”  RES  compliance.  A   study  by  Xcel  Energy  of  the  costs  and  benefits  of  net  metering  is  at  issue  in  this  proceeding.  The   study  was  filed  in  Docket  No.  11M-­‐426E,  a  proceeding  opened  in  2011  to  gather  research  on  the   costs  and  benefits  of  net  metering.   o September  18,  2013:  Vote  Solar  Initiative  moved  to  sever  net  metering  from  consideration  of  2014   RES  compliance  plan  and  to  order  a  full  evaluation  of  costs  and  benefits  of  net  metering  in  the   previously  mentioned  Docket  No.  11M-­‐426E.   o September  20,  2013:  Xcel  Energy  filed  response  opposing  Vote  Solar  Initiative  motion.   o October  2,  2013:  The  PUC  denied  Vote  Solar  Initiative  motion.   o October  22,  2013:  The  Colorado  Energy  Office  (CEO)  moved  for  late  intervention  because  the   proceeding  concerns  issues  around  the  costs  and  benefits  of  DG  and  because  the  PUC  closed  the   cost-­‐benefit  proceeding.  (Docket  No.  11M-­‐426E,  below)  The  CEO  hired  independent  facilitator   George  Burmeister  to  conduct  discussions  among  stakeholders  in  an  effort  to  reach  a  consensus.   (See  item  below-­‐Other  Policy  Initiatives.)   o October  31,  2013:  The  Alliance  for  Solar  Choice  (TASC)  filed  a  motion  to  strike  portions  of  Xcel   Energy’s  plan  relating  to  inclusion  of  net  metering  costs  in  the  2014  RES  adjustment.  Any  such   determination  must  be  made  via  rulemaking,  TASC  said.   Timeline of Key State Activities on Net Energy Metering 11   November  14,  2013:  Xcel  Energy  filed  a  response  to  TASC  motion,  saying  the  motion  has  no  legal   basis  and  the  proceeding  is  utility-­‐specific  and  does  not  seek  to  change  RES  rules.   o November  26,  2013:  The  ALJ  issued  an  interim  ruling  denying  the  TASC  motion  to  strike  and  saying  a   separate  “motion  to  certify”  on  a  legal  determination  –  that  interim  denial  of  the  motion  to  strike  is   immediately  appealable  –  will  be  decided  separately.   o December  2,  2013:  Testimony  due.     o December  6,  2013:  Xcel  Energy  filed  response  in  opposition  to  TASC  motion  to  certify.   o December  11,  2013:  Protest  rally  in  Denver  planned  by  HostVote  Solar,  TASC,  COSEIA,  Environment   Colorado,  and  others.  The  groups  delivered  a  petition  to  Xcel  Energy  to  withdraw  its  filing.  The   petition  was  written  by  SEIA  and  had  about  27,000  signatures.   o December  26,  2013:  The  ALJ  issued  an  interim  order  denying  the  TASC  motion  to  certify,  saying  TASC   failed  to  show  extraordinary  relief  is  warranted.     o January  17,  2013:  Rebuttal  testimony  due.   o January  21,  2014:  CO  Energy  Office  filed  motion  to  separate  NEM  issues  from  this  proceeding  and  to   consider  them  in  a  new  docket.  TASC  issued  press  release  in  support  of  motion.  Xcel  also  filed  in   support  of  the  motion  but  objected  to  CEO  procedural  recommendations.  The  Office  of  Consumer   Counsel  also  raised  procedural  concerns.   o January  29,  2014:  PUC  issued  interim  decision  saying  it  needs  more  time  to  deliberate  on  CO  Energy   Office  motion  and  will  make  a  decision  on  the  merits  in  the  next  several  weeks.  The  order  also   vacated  certain  procedural  steps.   o February  3,  2014:  Public  hearing  held  with  large  turnout  by  solar  advocates.   o February  18,  2014:  Xcel  moved  for  temporary  suspension  of  PUC  deliberations;  TASC  filed  response   in  opposition.   o February  27,  2014:  The  PUC  issued  an  interim  decision  that  grants  the  CO  Energy  Office  request  to   sever  NEM  issues.  A  new  NEM  proceeding  will  be  opened  by  a  separate,  future  order.   o March  12,  2014:  Supplemental  testimony  due  addressing  party  positions  in  light  of  NEM  severance.     o March  17,  2014:  Prehearing  conference.     Solar  PV  Financial  Incentives,  Docket  No.  11M-­‐426E.  CLOSED     o May  18,  2013:  The  CO  PUC  opened  docket  to  gather  research  on  current  and  historic  solar  PV   incentive  practices.       o May  23,  2013:  Xcel  Energy  filed  a  report  on  the  costs/benefits  of  DG.   o September  9,  2013:  Comments  due  on  Xcel  Energy  report.     o October  2,  2013:  Proceeding  closed.  The  PUC  said  the  docket  fulfilled  its  purpose  in  gathering   research  and  the  Xcel  Energy  study  is  at  issue  in  Docket  No.  13A-­‐0836E  (above).  The  Xcel  Energy   report  and  comments  are  posted  at:  https://www.dora.state.co.us/pls/efi/EFI_Search_UI.search     o • Legislation     •   H.B.  1113:  Would  reduce  the  RPS  target  for  investor-­‐owned  utilities  from  20%  to  15%  for  the  years  2015   through  2019,  and  from  30%-­‐15%  for  the  years  2020  and  thereafter.  Cooperative  targets  would  be   reduced  as  well.   o January  15,  2014:  Introduced  and  referred  to  House  Transportation  and  Energy  Committee.   o January  30,  2014:  Hearing  held.  The  bill  is  not  likely  to  receive  further  consideration  during  this   session.   Timeline of Key State Activities on Net Energy Metering 12   • • •   H.B.  1118:  Would  include  hydro  and  pumped  storage  as  RPS-­‐eligible  resources.     o January  16,  2014:  Introduced  and  referred  to  the  House  Transportation  and  Energy  Committee.         S.B.  35:  Would  reverse  the  RPS  from  20%  back  to  10%  for  electric  associations  serving  100,000  or  more   meters.  Eliminates  coal  mine  methane  and  synthetic  gas  produced  by  pyrolysis  of  municipal  waste  from   unapproved  energy  resources.  Reduces  the  retail  rate  impact  of  compliance  back  to  1%.  Eliminates   distributed  generation  subsidies.  Eliminates  reporting  requirements  and  portfolio  standards  for   cooperative  electric  associations.   o January  8,  2014:  Introduced  and  referred  to  State,  Veterans  and  Military  Affairs.     o January  15,  2014.  Hearing  held.  The  bill  failed  in  committee;  will  no  longer  be  considered  in  2014.       S.B.  252  (2013):  For  rural  electric  cooperatives  serving  100,000  or  more  meters,  establishes  1%  DG   carve-­‐out  and  increases  RES  from  10%  to  20%  by  2020,  with  cost  increases  capped  at  2%.  (Investor-­‐ owned  utilities  are  already  subject  to  a  30%  by  2020  standard  and  3%  DG  carve-­‐out.)  Adds  coal  mine   methane  and  municipal  waste  synthetic  gas  to  eligible  RES  resources.  Eliminates  in-­‐state  preference.   o June  5,  2013:  Enacted.   Other  Policy  Initiatives   • • January  8,  2014:  Glenn  Vaad  was  sworn  in  as  one  of  three  Colorado  PUC  members  despite  criticism  of   his  past  membership  in  the  American  Legislative  Exchange  Council.  Vaad  is  a  former  state  representative   from  Mead.  He  still  requires  approval  by  the  legislature.     October  29,  2013:  The  Colorado  Energy  Office  began  facilitating  discussions  on  the  value  of  solar  to  seek   consensus  where  possible.   • News  article:  Solar  advocates  and  Xcel  spar  over  the  future  of  rooftop  solar  power,  October   29,  2013,  by  Mark  Jaffe,  The  Denver  Post     o November  18,  2013:  Next  CEO  facilitated  meeting  held.  Consensus  language  has  not  emerged  and   no  further  meetings  are  planned  at  this  time.   CONNECTICUT   Rates  and  Regulation   •   Development  of  administrative  processes  and  program  specifications  for  virtual  net  metering,  per  H.B.   6360  (Public  Act  13-­‐298),  Docket  No.  13-­‐08-­‐14   o September  23,  2013:  Technical  meeting  held.  Minutes:   http://www.dpuc.state.ct.us/dockcurr.nsf/8e6fc37a54110e3e852576190052b64d/2c8d905fdb80b6 9785257bef006b46b6?OpenDocument     o October  24,  2013:  Working  group  meeting.   o February  12,  2014:  Working  group  report  released.     Timeline of Key State Activities on Net Energy Metering 13   Legislation   • • H.B.  6360  (2013):  An  act  concerning  implementation  of  Connecticut’s  comprehensive  energy  strategy   and  various  revisions  to  the  energy  statutes.  Broadens  eligibility  for  virtual  net  metering  in  several  ways,   including  opening  the  option  to  state  agencies  and  agricultural  customers  and  increasing  the  maximum   size  of  the  eligible  renewable  resource  from  2  to  3  MW.  Applies  virtual  net  metering  credit  against   customer’s  generation  service  charge  (GSC)  and  a  declining  percentage  of  distribution  and  transmission   charges,  thereby  increasing  its  value  compared  to  prior  law,  which  provided  that  the  credit  be  applied   against  the  GSC.  Allows  any  virtual  net  metered  customer  to  aggregate  meters  that  are  billed  to  the   customer  host  of  the  generation  facility.   o July  8,  2013:  Enacted.     S.B.  1138  (2013):  Amends  the  state  RES  to  allow  large  hydro  to  count  as  eligible  resource  under  certain   conditions  and  reduces  value  of  renewable  energy  credits  for  certain  biomass  facilities.  Alternative   compliance  payments  must  be  used  to  reduce  rates.   o June  5,  2013:  Enacted.   DISTRICT  OF  COLUMBIA   Legislation   • D.C.  B20  57  (2013):  Community  Renewable  Energy  Amendment  Act  of  2013  allows  virtual  net  metering.     o October  7,  2013:  Passed  City  Council.   o October  17,  2013:  Signed  by  mayor.   o October  24,  2013:  Transmitted  to  Congress  for  review.     o December  31,  2013:  Projected  DC  law  date.   GEORGIA   Rates  and  Regulation   • • Georgia  Power  2013  integrated  resource  plan,  Docket  No.  36498   o July  11,  2013:  The  GA  Public  Service  Commission  (PSC)  voted  to  require  Georgia  Power  to  include  in   its  2013  integrated  resource  plan  an  additional  525  MW  of  solar  generation,  including  100  MW  of   distributed  solar  generation,  to  be  procured  via  competitive  bidding.     Georgia  Power  general  rate  case,  Docket  No.  36989   o June  28,  2013:  Rate  case  filed.  Includes  proposal  to  eliminate  unused  backup  power  tariff  and   institute  new  supplemental  power  service  (SPS)  tariff,  which  would  apply  to  residential  customers   who  do  not  participate  in  the  company’s  Advanced  Solar  Initiative.  The  tariff  would  apply  to   customers  of  any  size  who  self-­‐generate  behind  the  meter,  who  require  supplementary  power,  and   who  install  their  generation  after  January  1,  2014.  The  company’s  existing  real-­‐time  pricing  (RTP)   tariff  currently  makes  available  such  service  to  large  cogenerating  and  QF  customers  at   approximately  avoided  cost.    Under  the  proposed  new  tariff,  small  and  medium  customers  would  be   able  to  purchase  supplemental  power  as  well  as  receive  credit  for  generation  that  offsets  usage.   Timeline of Key State Activities on Net Energy Metering 14   o o o o o They  would  be  required  to  subscribe  to  a  demand  billing  rate  or  pay  an  additional  charge  per  kW  of   installed  capacity.     October  1-­‐3,  2013:  PSC  hearing  held.   October  18,  2013:  Staff/intervenor  testimony  due.  Staff  recommended  disallowing  the  proposed   new  solar  tariff.     November  5-­‐7,  2013:  Second  round  of  hearings.   November  18,  2013:  On  rebuttal,  GP  filed  a  settlement  providing  for,  among  other  things,   withdrawal  of  the  proposed  SPS  tariff.  The  settlement  must  be  approved  by  the  PSC.   December  17,  2013:  The  PSC  unanimously  approved  the  settlement.   Legislation   • •   H.B.  657:  Would  authorize  the  PSC  to  establish  rural  voluntary  community  solar  initiative  and  oversee   and  manage  “responsible”  expansion  of  solar  energy,  including  prevention  of  involuntary  ratepayer   subsidies.   o March  26,  2013:  Date  filed.  Although  too  late  to  pass  in  2013  legislative  term,  filing  aimed  at   facilitating  stakeholder  input.  Will  carry  over  to  next  session.   o October  30,  2013:  House  Energy,  Utilities  and  Telecommunications  Committee  met  to  discuss  bill.   The  committee  will  not  meet  again  before  the  next  session  begins  on  January  13,  2014.  Summary   from  Stateside  Associates:  “…The  proponent  of  the  bill,  Representative  Culver  (R)  outlined  the  need   for  this  bill.  Robert  Green,  President  Georgia  Solar  Utilities,  testified  in  support  of  this  measure  as   well.  Mr.  Green  testified  that  solar  power  is  less  expensive  per  kilowatt  per  hour  than  any  form  of   energy  provided  by  electric  utilities  and  that  the  more  solar  power  a  property  possess  the  more   competitive  it  is  than  property  without  its  own  energy  generation.  Mr.  Green  was  questioned   repeatedly  by  the  committee,  as  some  members  disagreed  vehemently  with  his  testimony.     Several  opponents  testified  against  the  bill  including  Bill  Verner,  External  Affairs,  Georgia  EMC,   representing  Georgia’s  electric  cooperatives.  He  testified  that  the  industry  is  doing  quite  well   already  and  that  this  measure  is  not  necessary  and  will  require  cooperatives  to  fight  for  needed   exemptions.  Due  to  time  constraints  and  the  amount  of  public  testimony,  the  topic  of  climate   change  issues  was  tabled  for  a  hearing  yet  to  be  scheduled.  A  vote  did  not  take  place.  The  meeting   was  open  to  the  public  and  public  testimony  was  accepted.”   • News  article:  Outlook  for  solar  bill  isn’t  bright  in  Georgia,  October  30,  2013,  by  Walter  C.   Jones,  The  Florida  Times-­‐Union       H.B.  874:  Would  allow  third-­‐party  solar  financing.     o January  28,  2014:  Introduced.   o January  31,  2014:  Referred  to  Committee  on  Energy,  Utilities  and  Telecommunications.   o February  20,  2014:  Hearing  held.  While  it  initially  appeared  that  the  bill  would  be  subject  to  further   review  for  the  remainder  of  the  year,  House  leadership  is  reported  to  have  agreed  to  move  the  bill.   o March  3,  2014:  Committee  amendments  possible,  after  which  the  bill  could  move  to  the  House  floor   for  a  vote.   o March  4,  2014:  Failed  crossover  deadline.  The  bill  is  unlikely  to  receive  further  consideration.     Timeline of Key State Activities on Net Energy Metering 15   HAWAII   Rates  and  Regulation   • Generic  proceeding  on  DG   o 2014:  The  HI  PUC  is  expected  to  open  a  docket  to  take  a  comprehensive  look  at  DG  in  the  state   including  net  metering.   o January  2014:  The  PUC  issued  a  study  on  NEM  costs/benefits  prepared  by  consultant  E3.     Legislation     • H.B.  1541:  States  that  nothing  shall  prevent  an  eligible  customer-­‐generator  from  contracting  with  a   licensed  electrician  to  install  an  approved  meter  at  the  customer-­‐generator's  own  expense.  Requires  a   utility  to  install  and  purchase  a  new  meter  for  a  customer-­‐generator,  should  a  customer-­‐generator's   current  meter  fail  to  measure  electricity  flow  in  two  directions.  States  that  customers  who  generate   solar,  wind  turbine,  biomass,  or  hydroelectric  energy  are  eligible  to  receive  net  metering  service.     Amends  the  definition  of  "net  energy  metering"  to  measuring  the  difference  between  the  electricity   supplied  through  the  electric  grid  and  the  electricity  generated  by  an  eligible  customer-­‐generator  and   fed  back  to  the  electric  grid  over  a  monthly  billing  period.   o January  9,  2014:  Prefiled.   o January  15,  2014:  Referred  to  House  committees  on  Commerce  and  Consumer  Affairs,  and  Energy   and  Environmental  Protection.     • H.B.  1543:  States  that  an  electric  utility  shall  make  available  to  the  eligible  customer-­‐generator  the   option  of  receiving  compensation  in  lieu  of  a  credit  for  excess  kilowatt-­‐hours.  States  that  the  rate  at   which  compensation  will  be  added  will  be  determined  by  the  HI  PUC.  Requires  that  credits  for  excess   electricity  from  the  eligible  customer-­‐generator  that  remain  unused  after  each  12-­‐month  reconciliation   period  shall  be  carried  over  to  the  next  12-­‐month  period.   o January  9,  2014:  Prefiled.   o January  15,  2014:  Referred  to  House  committees  on  Commerce  and  Consumer  Affairs,  and  Energy   and  Environmental  Protection.   o February  11,  2014:  Hearing  held,  amended  and  passed  8-­‐1  by  Energy  committee.     • H.B.  1878:  Would  require  the  PUC  to  create  an  interconnection  fee  schedule  that  may  be  charged  by  a   utility  to  an  eligible  customer-­‐generator  for  connecting  a  solar  facility  to  the  electrical  grid.   o January  17,  2014:  Introduced.   o February  10,  2014:  Hearing  held.   o February  12,  2014:  Decision  meeting  held.  Action  deferred;  measure  is  awaiting  further  committee   action.     • H.B.1939:  Would  extend  Clean  Energy  Initiative  goals  to  2050  and  RPS  to  100%  clean  energy  by  2050.       o January  17  &  24,  2014:  Introduced  and  referred  to  House  committees  on  Energy  and  Environmental   Protection;  and  Consumer  Protection  and  Commerce.   o February  11,  2014:  Energy  Committee  held  hearing,  passed  measure  9-­‐0.   Timeline of Key State Activities on Net Energy Metering 16   February  24  &  26,  2014:  Consumer  Protection  hearing  held.       H.B.  1943:  Requires  the  PUC  to  adopt  rules  for  improved  accessibility  to  connect  to  grid  and  to  initiate  a   proceeding  by  July  1,  2014,  to  discuss  system  upgrades  to  accommodate  anticipated  growth  of  customer   generation.   o January  17  &  24,  2014:  Introduced  and  referred  to  House  committees  on  Energy  and  Environmental   Protection;  Consumer  Protection  and  Commerce;  and  Finance.   o January  30,  2014:  Hearing  held  by  Energy.  Bill  was  amended  and  passed  7-­‐3.  Current  version     o February  10,  2014:  Hearing  held.     o February  12,  2014:  Decision  meeting  held  by  Consumer  protection.  Amended  and  passed  13-­‐0.     o February  20,  2014:  Hearing  held  by  Finance.     o February  26,  2014:  Decision  meeting  held;  passed  Finance  17-­‐0.   o March  4,  2014:  Passed  House  without  opposition.     H.B.  2141:  Would  establish  community-­‐based  renewable  energy  program.   o January  21  &  24,  2014:  Introduced  and  referred  to  House  committees  on  Energy  and  Environmental   Protection;  Consumer  Protection  and  Commerce;  and  Economic  Development  and  Business.   o January  30,  2014:  Hearing  held  by  Energy  panel.  Amended  and  passed  unanimously.   o February  11,  2014:  Hearing  held  by  Economic  Development  panel.  Bill  was  deferred  and  awaits   further  committee  action.     H.B.  2166:  States  that  utilities  shall  be  responsible  for  and  not  pass  on  any  costs  for  interconnection   studies  for  any  consumer  seeking  to  make  an  interconnection  on  the  Hawaii  electric  system  to  install  a   solar  PV  on  a  single-­‐family  residential  dwelling  or  townhouse  that  the  consumer  owns.   o January  21  &  24,  2014:  Introduced  and  referred  to  House  committees  on  Consumer  Protection  and   Commerce;  and  Finance.   o • • •   • H.B.  2619:  Would  require  the  PUC  to  establish  energy  storage  portfolio  standards.   o January  23,  2014:  Introduced  and  referred  to  committees  on  Energy  and  Environmental  Protection,   and  Consumer  Protection  and  Commerce.   o February  11,  2014:  Hearing  held  by  Energy  panel.  Amended  and  passed  9-­‐0.   o February  24  &  26,  2014:  Hearings  held  by  Consumer  Protection.   o February  28,  2014:  Failed  committee  deadline  and  is  unlikely  to  receive  further  consideration.       • • October  14,  2013:  The  House  Energy  and  Environmental  Protection  Committee  held  an  informational   hearing  to  receive  an  update  from  Hawaiian  Electric  on  recent  changes  to  its  solar  PV  and   interconnection  policies.  Agenda       S.B.  2181:  Would  increase  RPS  to  70%  by  2040  and  100%  by  2050.   o January  15,  2014:  Introduced  and  referred  to  committees  on  Commerce  and  Consumer  Protection,   and  Energy  and  Environment.   o February  4,  2014:  Joint  hearing.  Passed  unanimously.  The  Division  of  Consumer  Advocacy  testified  in   support  of  the  intent  of  the  measure  but  said,  however,  "that  it  is  more  reasonable  to  establish   goals  with  a  time  frame  that  can  be  better  supported  with  relevant  analysis.  Creating  meaningful   Timeline of Key State Activities on Net Energy Metering 17   • • plans  to  meet  goals  that  are  almost  40  years  out  is  difficult,  if  not  impossible  and  may  result  in   imprudent  resource  allocations  that  ratepayers  may  be  required  to  bear."  The  PUC  testified  that   "Again,  while  the  Commission  continues  to  support  the  State's  clean  energy  mandates,  any   determinations  regarding  an  increase  and/or  extension  of  RPS  going  forward  should  take  into   account  the  challenges  associated  with  such  amendments  and  should  only  be  done  with  proper   information  and  analysis."  The  Sierra  Club  testified  in  support  of  the  measure.     S.B.  2656:  Would  require  the  PUC  to  adopt  rules  for  improved  accessibility  to  connect  to  the  Hawaii   electric  system  for  any  person,  business  or  entity  on  the  system  and  to  initiate  a  proceeding  no  later   than  July  1,  2014,  to  discuss  system  upgrades  for  anticipated  growth  of  customer  generation.  Similar   House  bill  is  H.B.  1943.   o January  17,  2014:  Introduced  and  referred  to  Senate  committees  on  Energy  and  Environment;   Commerce;  Ways  and  Means.     o February  4,  2014:  Joint  hearing  by  Energy  and  Commerce  panels.  PUC  Chair  Morita  testified  in   opposition,  stating  that  while  the  title  is  intended  to  address  grid  modernization,  the  commission  is   concerned  that  the  legislation  as  written  is  solely  focused  on  interconnection  issues  related  to  DG  by   creating  a  statutory  right  to  interconnect  DG  facilities,  which  may  be  to  the  detriment  of  the  rest  of   the  electric  system  and  at  the  expense  of  ratepayers  who  may  not  have  the  ability  to  site  DG   systems  at  their  homes  or  businesses.  The  Division  of  Consumer  Advocacy  testified  in  support  of  the   intent  of  the  measure,  but  raised  concerns  about  the  proposed  mandate  that  each  electric  grid  be   modified  to  ensure  that  any  person,  business  or  entity  can  operate  customer  generation  regardless   of  where  that  person,  business  or  entity  is  located.  The  CA  also  said  issues  need  to  be  regarding  the   costs  that  non-­‐participants  must  bear.  Testifying  in  support  were  the  League  of  Women  Voters  of  HI,   HI  Solar  Energy  Association  (HSEA),  other  solar  industry  representatives,  and  many  members  of  the   public.   o February  11,  2014:  Hearing  held  by  Energy  and  Commerce  panels.  Energy  passed  4-­‐0;  Commerce   passed  3-­‐0.   o February  20,  2014:  Hearing  held  by  Ways  and  Means.   o February  25,  2014:  Hearing  held  by  Ways  and  Means.  Amended  and  passed  11-­‐0.   o March  3,  2014:  Passed  Senate  23-­‐0.     S.B.  2932:  Would  establish  energy  storage  portfolio  standard  that  that  would,  among  other  things,   facilitate  increased  use  of  renewable  energy.   o January  22  &  24,  2014:  Introduced  and  referred  to  Senate  committees  on  Energy  and  the   Environment;  Commerce  and  Consumer  Protection;  and  Ways  and  Means.   o February  4,  2014:  Hearing  held  by  the  Energy  and  Commerce  panels.  Deferred  for  future   consideration.  PUC  Chair  Morita  testified:  "The  Commission  is  concerned  that  the  establishment  of  a   portfolio  standard  would  focus  the  State's  attention  on  satisfying  a  pre-­‐established  quota  for  a   specific  technology  and  may  hinder  utilization  of  alternative  technologies  and  programs  that  could   achieve  the  stated  goals  of  this  bill  more  cost-­‐effectively."  Erik  Kvam,  President  of  Renewable  Energy   Action  Coalition  of  HI,  testified  in  support  of  the  measure.  He  stated  that  without  large  amounts  of   energy  storage,  the  large  amounts  of  intermittent  solar  and  wind  generation  that  have  been  and  will   be  added  to  the  Hawaiian  island  grids  will  be  undispatchable  and  unusable  when  imported  fuels   stop  flowing  to  Hawaii.  Warren  Bollmeier,  testifying  on  behalf  of  the  Hi  Renewable  Energy  Alliance,   Timeline of Key State Activities on Net Energy Metering 18   said,  "We  believe  the  goal  of  600  MWHs  of  storage  is  too  pedestrian.  In  addition  to  distributed   energy  storage,  we  will  need  a  significant  amount  of  utility-­‐scale  storage,  such  as  pumped  hydro,  if   we  are  to  reach  our  clean  energy  goals.  We  support  the  role  of  the  Public  Utility  Commission  to   open  a  docket  on  this  portfolio,  at  which  time,  we  can  sharpen  our  pencils."  The  Sierra  Club  of   Hawaii  testified  in  support  of  the  measure.     • S.B.  2934:  Would  establish  community-­‐based  renewable  energy  program.  Similar  House  bill  is  H.B.  2141.   o January  22  &  24,  2014:  Introduced  and  referred  to  Senate  committees  on  Energy  and  the   Environment;  Commerce  and  Consumer  Protection;  and  Ways  and  Means.   o February  4,  2014:  Hearing  before  Energy  Committee.  Amended  and  passed  3-­‐0.  PUC  Chair  Morita   testified  "the  Commission  supports  the  intent  of  creating  a  community-­‐based  renewable  energy   tariff  structure  that  will  increase  access  to  renewable  generation,  but  it  believes  the  measure  is   overly  prescriptive  and  may  have  unintended  program  design  consequences  that  would  require   future  and  untimely  statutory  amendments  resulting  in  implementation  barriers.  The  Commission   believes  that  this  measure  is  not  necessary."  The  Sierra  Club  of  Hawaii  testified  in  support  of  the   measure.   o February  5,  2014:  Hearing  held  by  Commerce  Committee.  Amended  and  passed  4-­‐0.     o February  19,  2014:  Hearing  held  by  Ways  and  Means.  Amended  and  passed  11-­‐0.   o March  3,  2014:  Passed  Senate  23-­‐0.   o March  7,  2014:  Referred  to  three  House  committees:  Energy  and  Environment,  Commerce  and   Consumer  Protection,  and  Finance.   • S.B.  3020:  Would  increase  the  NEM  customer  capacity  limit  to  1  MW;  repeal  total  capacity  limit  but   impose  a  total  capacity  limit  determined  by  the  PUC;  prohibit  an  electric  utility  from  unreasonably   denying,  burdening  or  delaying  NEM  service  upon  a  request  by  a  retail  customer  of  the  utility.   o January  23,  2014:  Introduced.     S.R.  27:  Requests  that  the  Hawaii  State  Energy  Office  study  the  feasibility  of  creating  a  publicly  funded   integrated  resource  plan  to  meet  the  electric  energy  needs  of  the  state.  Requires  cooperation  from   investor-­‐owned  utilities  and  report  to  legislature,  including  any  proposed  legislation.     o March  3,  2014:  Introduced.     • IDAHO   Rates  and  Regulation   • Idaho  Power  net  metering  program,  Docket  No.  IPC-­‐E-­‐12-­‐27   o July  3,  2013:  The  ID  Public  Utilities  Commission  (PUC)  rejected  most  of  Idaho  Power’s  application  to   make  changes  in  its  net  metering  program,  including  increasing  the  monthly  service  charge  to  better   reflect  cost  of  service  to  net  metered  customers.  The  PUC  said,  however,  that  IP  raised  valid  issues   that  are  better  addressed  in  a  general  rate  case.  IP  on  its  website  said  it  will  not  file  a  general  rate   case  in  2013:  http://www.idahopower.com/AboutUs/RatesRegulatory/Rates/PCA_FAQs.cfm#6   Timeline of Key State Activities on Net Energy Metering 19   ILLINOIS   Rates  and  Regulation   • • Generic  proceeding,  revisions  to  net  metering  rule;  documents  posted  at:   http://www.icc.illinois.gov/electricity/NetMetering.aspx     o June  28,  2013:  The  IL  Commerce  Commission  (CC)  staff  issued  a  notice  of  request  for  comments  on   draft  net  metering  rule.     o July  19,  2013:  Comments  due.  Comments  are  posted  at  above  link.     Commonwealth  Edison  general  rate  case,  including  straight  fixed  variable  rate  design  issue,  Docket   No.  13-­‐0387   o As  part  of  general  rate  case,  consumer  advocate  and  state  attorney  general  have  requested   elimination  of  ComEd’s  commission-­‐approved  modified  straight  fixed  variable  rate  (SFV)  design  for   residential  customers.  The  company  is  arguing,  among  other  things,  that  “to  the  extent  that  future   state  policy  is  designed  to  encourage  the  adoption  of  clean  sources  of  behind-­‐the-­‐meter  distributed   generation  like  rooftop  solar,  SFV  pricing  addresses  concerns  about  the  utility’s  ability  to  recover  the   costs  of  its  investments  in  the  distribution  grid  by  making  it  financially  indifferent  to  such   proposals.”  (See  Rebuttal  Testimony  of  Philip  Q.  Hanser,  filed  August  19,  2013,  p.  9.)   o September  24-­‐25:  Evidentiary  hearing.   o October  23,  2013:  Statements  of  position  due.  Staff  filed  a  position  statement  in  support  of   retention  of  SFV  rate  design  percentages  previously  approved  by  the  commission  in  Docket  10-­‐0467.   o November  8,  2013:  Proposed  order  issued  by  ALJ.  The  ALJ  would  adopt  the  rate  design  proposed  by   the  AG,  who  argued  that  the  move  toward  SFV  should  be  reversed  in  favor  of  rates  that  reflect  cost   of  service.  The  AG  argued  that  the  SFV  rate  design  previously  approved  by  the  commission  resulted   in  an  undue  and  disproportionate  burden  on  low  usage  customers.  The  AG  rate  design  reduces   customer  charges  for  two  residential  subclasses  and  upwardly  adjusts  the  per-­‐kWh  usage  charge  to   better  reflect  what  the  AG  asserts  are  more  accurate  calculations  of  fixed  and  variable  costs.   o November  18,  2013:  Briefs  on  exceptions  due.   o November  25,  2013:  Reply  briefs  on  exceptions  due.   o December  18,  2013:  The  commission  issued  an  order  that,  among  other  things,  adopted  the  AG  rate   design  under  which  fixed  charges  decrease  and  variable  charges  increase  for  low-­‐use  residential   customers  (single  family  homes).     INDIANA   Legislation   • September  18,  2013:  The  Regulatory  Flexibility  Committee  held  a  meeting  that  included  presentations   on  feed-­‐in  tariffs  (FITs)  for  electricity.  Presentations  were  made  by  NIPSCO  jointly  with  IPL,  and  the   Indiana  Distributed  Energy  Alliance  (IDEA).  Among  other  things,  IDEA  advocated  expansion  of  existing   net  metering  rules  to  give  FIT  customers  the  option  to  net  meter.   Rates  and  Regulation   • Extension/modification  of  NIPSCO  voluntary  FIT  for  renewable  energy,  Docket  No.  44393   Timeline of Key State Activities on Net Energy Metering 20   September  11,  2013:  Northern  Indiana  Public  Service  petitioned  the  IN  Utility  Regulatory   Commission  (URC)  to  extend  and  make  certain  changes  to  its  existing  pilot  FIT.    IDEA  is  an   intervenor.     o October  15,  2013:  Public  prehearing  conference  and  preliminary  hearing.   o October  23,  2013:  The  URC  issued  a  procedural/interim  order  authorizing  NIPSCO  to  continue   offering  the  existing  FIT  beyond  its  scheduled  expiration  date  pending  a  final  order  in  this  case.     o December  31,  2013:  Existing  NIPSCO  pilot  FIT  set  to  expire.   o January  10,  2014:  NIPSCO  case  in  chief  due  (per  October  23  procedural  order).  Parties  filed  agreed   motion  for  9-­‐week  extension  of  this  procedural  schedule,  saying  they  have  been  engaged  in   settlement  discussions  –  the  most  recent  of  which  was  January  6  –  and  need  more  time  to   collaborate.   o March  7,  2014:  Intervenor  testimony  due  (per  October  23  procedural  order).   o March  28,  2014:  NIPSCO  rebuttal  due  (per  October  23  procedural  order).   o May  8,  2014:  Evidentiary  hearing  (per  October  23  procedural  order).     At  present  there  are  no  initiatives  to  change  the  existing  NEM  rule,  which  first  was  adopted  in  2004  and   re-­‐adopted  in  2010.  In  2011,  the  URC  updated  the  rules,  including  provisions  that:  1)  expanded  eligibility   to  all  customer  classes  (from  residential  and  K-­‐12  schools),  2)  expanded  eligible  renewable  energy   resources,  3)  increased  eligible  customer  generation  from  10  kW  to  1  MW  (or  more  at  utility’s   discretion),  and  4)  increased  the  aggregate  limit  on  net  metering  capacity  from  0.1%  to  1%  of  utility’s   most  recent  summer  peak  load  –  with  at  least  40%  reserved  for  residential.  Aggregate  limit  may  be   increased  at  utility’s  discretion.     o • Other  Policy  Initiatives   • Development  of  new  state  energy  plan   o December  2,  2013:  The  IN  Office  of  Energy  Development  announced  it  has  begun  developing  a  new   state  energy  plan  per  the  Governor’s  Roadmap  for  Indiana  initiative.  The  plan  will  be  based  on  three   main  principles:  utilize  all  energy  resources  in  the  state,  improve  availability  of  options  to  customers,   and  commercialize  new  energy  technologies.   o June  2014:  OED  to  complete  plan  and  submit  energy  recommendations  to  Governor.   IOWA   Rates  and  Regulation   • •   Notice  of  inquiry  on  DG,  Docket  No.  NOI-­‐2014-­‐0001   o January  7,  2014:  The  IA  Utilities  Board  (UB)  issued  the  NOI  to  gather  information  related  to  DG   policy  and  technical  issues.  The  UB  said  the  information  will  assist  it  in  addressing  the  potential   widespread  use  of  DG,  related  consumer  protections,  and  interconnection  and  safety   considerations.   o February  26,  2014:  Comments  due.     March  29,  2013:  A  district  court  issued  a  ruling  allowing  third-­‐party  sale  of  electricity  by  SZ  Enterprises   to  Dubuque  City  Council.  The  ruling  was  viewed  by  analysts  as  clearing  the  way  for  similar  arrangements   Timeline of Key State Activities on Net Energy Metering 21   in  Iowa  and  influencing  debates  in  other  states  such  as  Georgia  and  South  Carolina  on  third-­‐party  solar   financing.    (See  related  items  for  those  states.)  The  court  reversed  an  April  12,  2012,  ruling  by  the  IA  UB,   which  held  that  SZ  (dba  Eagle  Point  Solar)  would  be  a  public  utility  under  state  law  and  therefore   prohibited  from  offering  service  to  the  city.  (IA  UB  Docket  No  DRU-­‐2012-­‐0001).  The  UB  proceeding   involved  many  parties,  including  SEIA  as  a  member  of  a  large  Solar  Coalition.  (Iowa  District  Court  for  Polk   County,  SZ  Enterprises  v.  Iowa  Utilities  Board,  March  29,  2013,  Case  No.  CVCV009166)   o April  10,  2013:  Appealed  to  Iowa  Supreme  Court.  (S.Ct.  No.  13-­‐0642)   o January  22,  2014:  IA  Supreme  Court  heard  oral  arguments.  The  court  usually  issues  a  decision  6  to  8   months  after  argument.   Legislation   • • • H.R.  2336:  Would  establish  NEM  program  applicable  to  rate-­‐regulated  electric  utilities.  The  IA  Utilities   Board  (UB)  would  utilize  existing  standard  offer  contract  forms  to  facilitate  interconnection  between  a   utility  and  a  DG  facility,  and  that  the  standard  offer  contracts  would  be  in  effect  for  a  20-­‐year  period.   Utilities  must  purchase  a  minimum  of  5%  of  its  required  electrical  output  from  DG  facilities  pursuant  to   NEM  agreements  by  July  1,  2019.  Prohibits  the  UB  from  placing  limits  on  the  aggregate  capacity  of  net-­‐ metered  systems  as  a  percentage  of  the  utility’s  peak  demand.  Permits  the  board  to  allow  indefinite  net   excess  generation  carryover.  Prohibits  the  board  from  imposing  special  fees  applicable  specifically  to  net   metering.  Sets  reporting  requirements.   o February  19,  2014:  Introduced  and  referred  to  Commerce  Committee.         S.F.  2107:  Would  change  existing  105  MW  RPS  to  apply  only  to  solar,  with  the  share  to  be   purchased/owned  by  each  major  investor-­‐owned  utility  by  2020.  A  minimum  of  10%  of  that  power  must   come  from  solar  facilities  of  20  kW  or  less.  Utilities  would  be  required  to  establish  and  maintain  one  or   more  community  solar  gardens  that  generate  1  MW  or  less  for  subscribers.  NEM  requirements  would  be   set  for  solar  installations.   o February  5,  2014:  Introduced  and  referred  to  Senate  Commerce  Committee.   o February  17,  2014:  Hearing  held  with  large  turnout  on  both  sides  of  the  measure.  Utilities  voiced  a   number  of  concerns  including  the  timing  of  the  bill,  which  is  being  considered  as  the  IA  UB  conducts   a  notice  of  inquiry  on  DG  and  as  a  state  Supreme  Court  decision  is  awaited  on  solar  leasing  (items   below),  and  confusing  language  around  the  NEM  requirements.   o February  20,  2014:  Hearing  held.  Measure  deferred.     H.F.  2166:  Would  require  that  25%  of  the  existing  105  MW  RPS  come  from  solar.   o February  6,  2014:  Introduced.   KANSAS   Legislation     • H.B.  2458:  Similar  to  S.B.  280  (below).  Would  reduce  compensation  to  net  metered  customers  for  excess   generation  from  current  retail  rate  and  allow  commission  to  authorize  unique  tariffs  such  as  standby   charges  and  fixed  charges.   Timeline of Key State Activities on Net Energy Metering 22   January  17  &  21,  2014:  Introduced  and  referred  to  House  Committee  on  Energy  and  Environment,   respectively.   o January  30,  2014:  Hearing  held.  KCP&L,  Westar  and  Empire  Electric  testified  in  support  of  the   measure.  The  Kansas  Corporation  Commission  offered  testimony  but  did  not  take  a  position.   Representatives  from  Kansans  for  Clean  Energy,  The  Alliance  for  Solar  Choice,  Mid  America  Bank,   Brightergy  and  the  Vote  Solar  Initiative  all  testified  in  opposition,  according  to  Stateside  Associates.   o January  31,  2014:  Possible  continuation  of  hearing  and  vote  was  canceled.   o February  11,  2014:  Committee  voted  9-­‐7  to  table  the  bill.     o February  20,  2014:  Committee  took  bill  off  table,  held  hearing,  amended  and  passed.  Amended   version  removes  proposed  authority  for  commission  to  approve  unique  tariffs.  Measure  is  likely  to   be  referred  to  another  committee  before  House  floor  consideration.  Current  version     o February  28,  2014:  Stricken  from  House  calendar.  The  measure  will  no  longer  be  considered  in  this   session.     H.B.  2460:  Would  exempt  any  renewable  energy  supplier  from  the  definition  of  a  public  utility,  and  from   the  definition  of  a  retail  electric  supplier.   o January  16,  2014:  Introduced.  This  measure  is  a  committee  bill,  sponsored  by  the  House  Committee   on  Energy  and  Environment.   o January  21,  2014:  Referred  to  House  Committee  on  Utilities  and  Telecommunications.   o February  12,  2014:  Hearing  held;  vote  not  taken.     H.B.  2465:  Would  allow  tax  exempt  entities  (TXE)  to  self-­‐generate  from  renewables  facilities;  facilities   could  not  exceed  200%  of  TXE  baseline  usage  for  previous  3  years.  Utilities  could  apply  customer  charge   as  provisional  charge  for  being  available  to  supply  TXE  load.  Utility  compensation  to  TXE  for  any   generation  would  be  150%  of  utility  monthly  system  average  cost  of  energy/kWh;  compensation  could   be  provided  via  credits  or,  under  specified  circumstances,  payments.   o January  21,  2014:  Introduced  and  referred  to  Energy  and  Environment  Committee.   o January  22,  2014:  Withdrawn  from  Energy;  referred  to  Utilities  and  Telecommunications   Committee.   o February  12  &  19,  2014:  Hearings  held.  Kansas  Interfaith  Power  and  Light  and  Cromwell  Solar   testified  in  support.  Kansas  Electric  Cooperatives  and  Kansas  City  Power  and  Light  testified  in   opposition.  A  vote  was  not  taken.   o • •   • S.B.  280:  States  that  on  and  after  January  1,  2030,  compensation  for  all  net  excess  energy  (NEG)  shall  be   credited  to  the  customer  at  a  rate  of  150%  of  the  utility's  monthly  system  average  cost  of  energy/kWh.   Provides  that  NEG  shall  be  credited  to  the  customer  at  a  rate  of  150%  of  the  utility's  monthly  system   average  cost  of  energy/kWh  if  a  customer-­‐generator  begins  operating  its  renewable  energy  resource   under  an  interconnect  agreement  with  the  utility  on  and  after  July  1,  2014.  Allows  the  KS  Corporation   Commission  to  authorize  unique  tariffs  and  fixed  charges.  (Under  existing  net  metering  framework,  NEG   is  carried  forward  to  the  next  month  at  the  full  retail  rate.)   o January  16  and  17,  2014:  Introduced  and  referred  to  Senate  Utilities  Committee,  respectively.  This   measure  is  sponsored  by  the  Senate  Utilities  Committee.  Republicans  control  both  chambers  as  well   as  the  Governor's  Office.  This  measure  is  similar  to  H.B.  2458  (above),  filed  by  the  House  Committee   on  Energy  and  Environment.   Timeline of Key State Activities on Net Energy Metering 23   o o o January  30,  2014:  Hearing  held.     Week  of  February  17,  2014:  Committee  vote  possible.   May/June  2014:  Session  adjourns.     • H.B.  2241:  Would  ease  requirements  of  state  RES.   o March  19,  2013:  Tabled  by  House  Energy  and  Environment  Committee.     o 2014:  Another  legislative  effort  is  expected  to  delay  the  remaining  steps  in  the  RES.  Separate   legislation  also  is  expected  to  expand  the  RES.   • S.B.  154:  Would  amend  the  expiration  date  of  net  excess  generation  credit  from  the  end  of  the  calendar   year  to  no  more  than  12  months  after  one  of  three  dates  of  the  customer’s  choosing.   o February  7,  2013:  Introduced  by  the  Committee  on  Utilities.  Will  carry  over  to  next  session.   o January  21,  2014:  Hearing  held.  A  vote  was  not  taken.     November  14,  2013:  Rep.  Tom  Sloan  convened  an  informal  private  discussion  with  interested  parties   from  the  regulatory  and  customer  communities  to  address  the  Future  of  Electric  Rates,  including  topics   related  to  DG  and  value  of  solar.       • KENTUCKY   Legislation   • • H.B.  195:  Would  establish  mandatory  RPS  with  target  of  12.5%  of  average  2022-­‐23  retail  sales  in  2024,   with  1%  of  that  from  solar.     o January  13-­‐14,  2014:  Introduced  and  referred  to  House  Tourism,  Development  and  Energy   Committee.   o March  6,  2014:  Hearing  scheduled.     H.B.  535:  Would  raise  the  NEM  system  capacity  limit  from  30  kW  to  500  kW.   o March  4,  2014:  Introduced.   LOUISIANA   Rates  and  Regulation   • Re-­‐examination  of  net  metering  rules,  Docket  No.  R-­‐31417   o July  26,  2013:    The  LA  Public  Service  Commission  (PSC)  rejected  two  motions  to:  1)  replace  retail  rate   compensation  to  net  metered  customers  with  an  avoided  cost  credit,  and  2)  require  utilities  to   conduct  more  thorough  analysis  of  the  cost  of  net  metering.  LA  PSC  capped  residential  net  metering   at  0.5%  of  system  peak.   • August  21,  2013:  Open  session  of  LA  PSC.  Chairman  Skrmetta  issued  directive  to  utilities  to  accept  NEM   applications  from  otherwise  eligible  customers  that  have  executed  contracts  as  of  this  date  for   purchase,  lease  or  installation  of  solar  panels.  The  directive  also  requires  utilities  to  notify  customers     Timeline of Key State Activities on Net Energy Metering 24   and  solar  providers  when  they  are  nearing  their  NEM  caps.  The  directive  came  as  some  co-­‐ops  neared  or   reached  0.5%  NEM  caps.     MAINE   Legislation   • • L.D.  1085:  Would  establish  a  feed-­‐in  tariff  (FIT)  for  renewables.   o March  18,  2013:  Introduced  and  referred  to  Energy,  Utilities  and  Technology  Committee.   o April  24,  2013:  Hearing  held.  Maine  Central  Power  testified  in  opposition.  The  Governor’s  Energy   Office  expressed  concerns.  The  ME  Public  Utilities  Commission  (PUC)  provided  information.  The   Sierra  Club  testified  in  support.   o May  7  and  May  13,  2013:  Work  sessions  held.     o July  9,  2013:  Carried  over.   o December  11,  2013:  Work  session  held.  No  action  was  taken.  The  committee  may  be  working  on  a   more  encompassing  piece  of  legislation  relating  to  renewable  energy.   o January  15  &  22,  2014:  Work  sessions  held.  Votes  were  not  taken.     o January  28  &  February  4,  2014:  Work  sessions  held.     o February  6,  2014:  Work  session  held.  The  committee  could  not  come  to  a  unanimous  decision,   resulting  in  a  divided  report.  The  measure  was  not  reported  out  of  committee.  Once  reported,  the   measure  will  go  to  the  House  floor  for  consideration.   o February  27,  2014:  Majority  report  accepted  by  Senate.  House  must  concur.     L.D.  1252:  Would  reinstate  solar  and  wind  energy  rebate  program  until  June  30,  2018;  increase  the  limit   on  total  renewable  capacity  allowed  under  the  community  renewable  energy  pilot  program  from  50   MW  to  60  MW  and  require  the  ME  PUC  to  reserve  10  MW  in  that  program  for  solar;  increase  the  limit   on  the  PUC-­‐authorized  contract  price  for  eligible  solar  generation  and  index  the  price  limit  to  the  CPI;   extend  the  repeal  date  for  the  Community-­‐based  Renewable  Energy  Act  from  December  31,  2015,  to   December  31,  2017;  and  require  the  PUC  to  submit  to  the  Legislature  by  January  15,  2014,  a  report  on   options  for  establishing  a  solar  carve-­‐out  within  the  RPS.       o March  27,  2013:  Introduced  and  referred  to  Energy,  Utilities  and  Technology  Committee.   o April  24,  2013:  Hearing  held.  Maine  Central  Power  and  the  Governor’s  Energy  Office  testified  in   opposition.  The  Sierra  Club  and  other  groups  testified  in  support.   o May  7  and  May  13,  2013:  Work  sessions  held.   o July  9,  2013:  Carried  over.   o December  11,  2013:  Work  session  held.  The  committee  may  be  working  on  a  more  encompassing   piece  of  legislation  relating  to  renewable  energy.   o January  15  &  22,  2014:  Work  sessions  held.  Votes  were  not  taken.   o January  28  &  February  4,  2014:  Work  sessions  held.     o February  6,  2014:  Work  session  held.  The  committee  could  not  come  to  a  unanimous  decision,   resulting  in  a  divided  report.  The  measure  was  not  reported  out  of  committee.  Once  reported,  the   measure  will  go  to  the  House  floor  for  consideration.     Timeline of Key State Activities on Net Energy Metering 25   • • • L.D.  1652:  Would  create  Maine  Solar  Energy  Act;  require  the  PUC  to  determine  the  value  of  distributed   solar,  develop  a  method  for  doing  so,  and  monitor  solar  development  and  market  trends.  The  PUC  must   report  to  the  legislature.  Would  set  state  solar  goals:  40  MW  of  installed  capacity  by  2016,  200  MW  by   2020  and  500  MW  by  2030.   o 2013:  Filed  October  1.  Approved  by  Legislative  Council  October  30.  Changed  into  legislative   document  and  referred  to  Joint  Committee  on  Energy,  Utilities  and  Technology  December  23.   o January  21,  2014:  Hearing  scheduled.  A  vote  is  not  anticipated.  The  sponsor,  Sen.  Millett  (D),  Rep.   Dorney  (D),  and  representatives  of  the  Maine  Audubon  Society,  the  International  Brotherhood  of   Electrical  Workers  and  Central  Maine  Power  offered  testimony  in  support.  Gov.  LePage  (R)  and   representatives  from  the  Governor's  Energy  Office  testified  in  opposition.   o January  22,  2014:  Work  session  held.     o February  12,  19  &  27  and  March  6  &  7,  2014:  Work  sessions  held.     o March  11,  2014:  Work  session  scheduled.     October  1,  2013:  L.R.  3650,  an  act  to  encourage  DG  in  the  state,  filed  by  president  of  the  Senate.  This  is   a  Legislator  Request  (LR);  bill  text  will  not  be  available  until  it  is  formally  introduced.    This  measure  will   only  be  introduced  if  a  member  of  the  Legislature  takes  it  up  and  elects  to  sponsor  it.  When  the  request   is  formally  introduced,  it  will  then  be  referred  to  a  committee.  The  Maine  Legislature  will  convene   January  8,  2014.     October  21,  2013:  Joint  Standing  Committee  on  Energy,  Utilities  and  Technology  will  hold  a  public   meeting  featuring  policy  discussions  that  include  community-­‐based  renewable  energy,  net  energy   billing,  feed-­‐in  tariffs,  and  renewable  portfolio  standards.  Agenda     MARYLAND   Legislation   • • H.B.  1149:  Would  increase  RPS  to  40%  (Tier  1  renewable  resources)  by  2025,  including  4%  solar  carve-­‐ out  and  max.  2.5%  offshore  wind.  Current  RPS  targets  are  20%  (Tier  1)  by  2022  including  2%  solar  carve-­‐ out,  and  max.  2.5%  offshore  wind  carve-­‐out  beginning  in  2017.   o February  6,  2014:  Introduced  and  referred  to  House  Economic  Matters  Committee.   o February  27,  2014:  Hearing  held.  Representatives  from  the  Chesapeake  Climate  Network,  MD   League  of  Conservation  Voters,  Sierra  Club  and  the  MD-­‐DE-­‐VA  Solar  Industries  Association  testified   in  support.  Exelon,  BGE,  W.R.  Grace,  First  Energy,  MD  Industrial  Technology  Alliance,  MD  Wild  lands   Committee,  Southern  MD  Electric  Cooperative,  Future  of  Energy  Initiative,  MD  Conservation  Council,   and  MD  Retailers  Association  and  Energy  Justice  Network  testified  in  opposition.     H.B.  1192:  Would  create  a  community  renewable  energy  system  pilot  program,  administered  by  the  MD   Public  Service  Commission  (PSC).  Subscribers,  through  net  metering,  could  receive  credit  for  net  excess   generation  up  to  120%  of  baseline  annual  usage.  Utility  ownership  allowed.  Would  ensure  that  an  lectric   company  continue  to  facilitate  operation  of  a  community  renewable  system  even  after  the  pilot  has   been  terminated.   o February  7,  2014:  Introduced  and  referred  to  House  Economic  Matters  Committee.   Timeline of Key State Activities on Net Energy Metering 26   March  6,  2014:  Hearing  held.  The  MD  Energy  Administration,  Baltimore  Sustainability  Commission,   Capital  Sun  Group,  Interfaith  Power  and  Light,  MD-­‐DC-­‐VA  Solar  Energy  Industries  Association,   Baltimore  Community  Foundation,  City  of  Rockville,  Green  Building  Initiative,  Chesapeake  Climate   Action  Network,  Greenbelt  Community  Solar  and  Office  of  People's  Counsel  testified  in  support.  The   Sierra  Club  and  Community  Research  testified  in  support  but  with  an  amendment  to  not  include   gasification  in  the  definition.  GE,  Exelon  and  FirstEnergy/Potomac  Edison  testified  in  opposition.  No   action  was  taken.     S.B.  786:  Would  establish  pilot  community  renewables  program  to  be  administered  by  the  MD  PSC.   o January  31,  2014:  Introduced  and  referred  to  Senate  Finance  Committee.   o March  4,  2014:  Hearing  held.  The  MD  Energy  Administration,  Energy  Justice  Network,  Chesapeake   Climate  Action  Network,  MD  Solar  United  Neighborhoods,  Greenbelt  Community  Solar,  MD  Clean   Energy  Center,  Office  of  People's  Counsel  and  George  Washington  Solar  Institute  testified  in   support.  BGE,  Exelon  and  FirstEnergy/Potomac  Edison  testified  in  opposition.  The  Sierra  Club  and   Rockville  Environment  commission  testified  in  support  with  amendments.  No  action  was  taken.   o • MASSACHUSETTS   Legislation   • H.B.  3802:  Would  add  clean,  non-­‐combustion  DG  facilities  to  solicitation  requirements  for  DG  contracts   by  distribution  companies  as  stated  in  existing  law.  States  that  10%  of  long-­‐term  contracts  shall  be   reserved  for  clean,  non-­‐combustion  DG  facilities.   o November  22,  2013:  Filed.  Referred  to  Joint  Committee  on  Telecommunications,  Utilities  and  Energy   on  November  27,  2013.     o January  8,  2014:  Hearing  scheduled.   • S.B.  1970:  Would  establish  an  alternative  energy  portfolio  standard  for  all  retail  electricity  providers.   Eligible  resources  include  combined  heat  and  power  and  flywheel  energy  storage.   o January  9,  2014:  Introduced  and  referred  to  Senate  Committee  on  Ways  and  Means.     S.B.  2019:  Specifies  that  any  on-­‐site  renewable  energy  source  determined  by  the  administrator  of  the   net  metering  system  of  assurance  to  otherwise  meet  the  qualifications  for  NEM  cap  allocation  will   qualify  for  NEM,  provided  the  determination  is  obtained  on  or  before  December  31,  2016.  Would   establish  a  study  commission  to  research  and  review  the  long-­‐term  viability  of  net  metering.   (Companion  bill  –  H.B.  3901)   o January  10,  2014:  Introduced.   o January  13  &  February  26,  2014:  Referred  respectively  to  Joint  Committee  on  Rules  and  Joint   Committee  on  Telecommunications,  Utilities  and  Energy.   o March  11,  2014:  Hearing.  A  vote  is  not  expected  but  may  occur  at  the  discretion  of  the  chair.     S.B.  2030:  Requires  the  Department  of  Energy  Resources  (DOER)  to  authorize  utilities  to  individually  and   jointly  propose  and  implement  competitive  programs  for  procurement  of  solar  DG  projects  500  kW  and   larger,  including  any  subsets,  that  begin  operation  on  or  after  January  1,  2016.  Procurements  may     • • Timeline of Key State Activities on Net Energy Metering 27   • include  solar  renewable  energy  certificates.  Would  increase  aggregate  NEM  capacity  from  3%  of  a   distribution  company's  peak  load  to  4%.  Requires  the  DPU  to  open  by  July  1,  2015,  a  generic  docket  to   establish  minimum  distribution  bill  charges  for  net  metered  customers.   o February  24,  2014:  Introduced.   o March  4,  2014:  Referred  to  Joint  Committee  on  Telecommunications,  Utilities  and  Energy.   o March  11,  2014:  Hearing  scheduled.     S.B.  2395  (2012):  “An  Act  relative  to  competitively  priced  electricity  in  the  Commonwealth.”  Doubles  net   metering  cap  to  6  percent;  of  that,  3  percent  applies  to  public  projects  and  3%  to  private  projects.   Certain  small  facilities  are  exempt  from  cap,  e.g.,  those  less  than  10  kW  (single  phase).  Allows  electric   utilities  to  own  up  to  25  MW  of  solar;  utilities  must  obtain  DPU  approval  for  such  facilities  by  June  30,   2014.  Adds  anaerobic  digestion  to  allowable  net  metered  facilities.  Directs  DPU  to  develop  enforceable   standard  interconnection  timeline.  Appoints  9-­‐member  commission  to  study  economic/environmental   benefits  and  economic/electricity  cost  implications  of  the  commonwealth’s  energy  policies.  Requires   DPU  to  design  base  rates  using  cost  allocation  method  based  on  equalized  rates  of  return  for  each   customer  class.  Has  numerous  other  provisions,  including  those  affecting  RES  and  long-­‐term  contracting   requirements.   o August  3,  2012:  Enacted.   o As  of  December  2013:  Utilities  have  hit  or  are  near  hitting  the  NEM  caps,  giving  rise  to  discussion  of   legislation  to  raise  the  cap  again.   o June  30,  2014:  Utilities  must  obtain  DPU  approval  for  utility-­‐owned  solar  facilities  up  to  25  MW.   Rates  and  Regulation   • • • National  Grid  proposal  to  own  20  MW  of  solar,  Docket  No.  DPU  14-­‐01   o January  2,  2014:  National  Grid  filed  petition  with  MA  Department  of  Public  Utilities  (DPU),  as  part  of   broader  solar  program,  to  own  and  operate  up  to  20  MW  of  solar  on  company-­‐owned  or  customer-­‐ owned  property.   o January  28,  2014:  Interventions  due.  The  AG  intervened.   o January  31,  2014:  Public  hearing  and  procedural  conference;  discovery  begins.   o April  15,  2014:  Final  discovery  responses  due.   o April  24-­‐25,  2014:  Evidentiary  hearings,  if  necessary.   o May  12,  2014:  Simultaneous  briefs.   o May  19,  2014:  Simultaneous  reply  briefs.     Investigation  into  time-­‐varying  rates,  Docket  No.  1404.   o January  23,  2014:  The  MA  DPU  opened  an  investigation  to  explore,  among  other  things,  whether   time-­‐varying  rates  provide  appropriate  incentives  for  distributed  resources  such  as  solar  PV  and   storage.  The  investigation  is  in  the  context  of  grid  modernization.   o March  10,  2014:  Comments  due.     DPU  net  metering  webpage:  Provides  docket  information  on  proceedings  related  to  individual  utility  net   metering  tariffs  and  net  metering  recovery  surcharges  (NMRS),  interconnection,  and  other  information.       Timeline of Key State Activities on Net Energy Metering 28   • • Renewable  Portfolio  Standard  (RPS)  Solar  Carve-­‐out    (SREC  program)   o August  12,  2013:  The  MA  Department  of  Energy  Resources  (DOER)  presented  at  a  stakeholder   meeting  its  proposed  update  of  the  RPS  solar  carve-­‐out,  which  currently  is  400  MW  by  2017.  The   proposal  was  made  under  emergency  regulations  issued  by  DOER  on  June  28,  2013,  to  expand  the   400  MW  cap,  which  is  oversubscribed.  The  proposed  new  program  would  be  capped  at  1,200  MW,   create  a  new  separate  solar  renewable  energy  credit  market  (SREC  II)  and  provide  for  declining   incentives  over  time,  differentiated  by  market  sector.  The  Governor  has  set  a  goal  of  1600  MW  by   2020.  Presentation  is  located  at:  http://www.mass.gov/eea/docs/doer/renewables/solar/srec-­‐ii-­‐ final-­‐proposed-­‐design-­‐stakeholder-­‐review-­‐mtg-­‐081213.pdf     Consultant  reports  and  other  materials  in  regulatory  proceeding  are  posted  at:   www.mass.gov/eea/energy-­‐utilities-­‐clean-­‐tech/renewable-­‐energy/solar/rps-­‐solar-­‐carve-­‐out/post-­‐ 400-­‐mw-­‐solar-­‐policy-­‐development.html     o August  26,  2013:  Comments  due  on  proposed  updated  solar  carve-­‐out  design.   o October  7,  2013:  DOER  technical  conference  for  stakeholders  to  review  consultant  reports  with   consultants  contracted  by  DOER  to  inform  decisions.  Five  reports  are  posted  at  above  link:  1)   Evaluation  of  Current  Solar  Costs  and  Needed  Incentive  Levels  Across  Market  Segments,  and  2)   Comparative  Evaluation  of  Carve-­‐out  Policy  with  Other  Policy  Alternatives,  3)  Evaluation  of  400  MW   (SREC-­‐I)  Program  in  Meeting  its  Objectives,  4)  Analysis  of  Economic  Costs  and  Benefits  of  Solar   Program  (SREC-­‐II),  and  5)  Comparative  Regional  Economic  Impacts  of  Solar  Ownership/Financing   Alternatives.   o November  14,  2013:  DOER  released  the  RPS  Solar  Carve-­‐Out  Construction  Timeline  Extensions  final   guideline,  Detailed  Construction  Cost  Form,  and  Construction  Timeline  Affidavit.  The  guideline   applies  to  all  solar  carve-­‐out  generation  units  larger  than  100  kW  that  have  received  a  Statement  of   Qualification  and  have  not  received  the  authorization  to  interconnect  or  permission  to  operate  by   December  31,  2013.  In  addition,  DOER  is  still  developing  the  program  design  for  the  next  phase  of   the  solar  carve-­‐out  program  (SREC-­‐II).   o December  12,  2013:  At  the  New  England  Electricity  Restructuring  Roundtable,  Commissioner  Sylvia   provided  a  presentation  on  the  final  SREC  II  policy  design  (located  at  materials  link  above).   o January  3,  2014:  DOER  issued  a  proposed  regulation  that  plans  for  consistent  annual  growth  through   2020  for  meeting  the  program  goal  (cap)  of  1600  MW.   o January  24,  2014:  Public  hearing.   o January  29,  2014:  Comments  due.     o February  11,  2014:  DOER  submitted  an  updated  draft  regulation  to  the  Joint  Committee  on   Telecommunications,  Utilities,  and  Energy,  which  will  review  it  for  30  days  and  submit  comments.   DOER  will  review  the  comments  for  30  days  and  promulgate  the  regulation  as  soon  as  possible.     DOER  study  on  net  metering   o December  12,  2013:  In  a  presentation  at  the  New  England  Electricity  Restructuring  Roundtable,   Commissioner  Sylvia  said  the  DOER  is  cognizant  that  utilities  are  hitting  NEM  caps  but  does  not  have   a  position  on  whether  caps  should  be  raised.  DOER  has  commissioned  a  study  on  NEM  policy  and  is   evaluating  costs/benefits  and  policy  options  to  assist  with  policymaking.    The  study  is  due  soon,   Sylvia  said.  Sen.  Marc  Pacheco,  D-­‐Taunton,  who  sits  on  the  Telecommunications,  Utilities  and  Energy   Committee,  has  been  quoted  as  saying  the  legislature  is  waiting  for  review  of  the  program  by  DOER   before  it  considers  raising  the  cap.   Timeline of Key State Activities on Net Energy Metering 29   •   Generic  investigation  into  DG  interconnection,  Docket  Nos.  DPU  11-­‐75  and  11-­‐11   o March  13,  2013:  The  MA  DPU  issued  an  order  (Docket  No.  11-­‐75-­‐E)  that,  among  other  things,   accepted  tariff  and  non-­‐tariff  recommendations  of  DG  working  group  in  the  group’s  September  14,   2012,  report,  and  created  new  designation  of  interconnection  service  agreement  (ISA)  called  Early   ISA  (Docket  No.  11-­‐11).  The  DPU  also  directed  the  DG  Transition  working  group  (WG)  to  collaborate   to  develop  a  timeline  enforcement  mechanism  to  encourage  utility  adherence  to  interconnection   timelines  and  to  report  results  to  DPU.   o August  9,  2013:  Comments  due  on  Early  ISA.   o August  16,  2013:  Reply  comments  due  on  Early  ISA.   o October  1,  2013:  Working  Group  proposal(s)  for  timeline  enforcement  mechanism  submitted:   http://www.env.state.ma.us/dpu/docs/electric/11-­‐75/11-­‐75-­‐Filing-­‐4789.pdf     o October  30,  2013:  The  DPU  issued  an  order  finding  that  an  Early  ISA  satisfies  its  “executed  ISA”   requirement  for  filing  an  application  with  the  net  metering  System  of  Assurance.   o November  21,  2013:  The  DPU  released  a  memorandum  regarding  the  interconnection  timeline   enforcement  mechanism.  The  DPU  is  reviewing  the  proposed  interconnection  timeframe   enforcement  metric,  and  it  may  take  more  than  two  months  to  release  the  final  mechanism.  To   avoid  delaying  the  first  reporting  year,  the  DPU  directed  distribution  companies  to  begin  collecting   this  data  January  1,  2014.   Other  Initiatives   • October  18,  2013:  The  Energy  Policy  Review  Commission  (EPRC)  released  for  comment  its  mandated   draft  report  to  the  legislature.  The  commission  was  created  per  S.  2395  (August  2012)  to  research  and   review  the  economic/environmental  benefit  and  economic/electricity  cost  implications  of  energy  and   electricity  policies  in  the  commonwealth,  including  net  metering.  (See  item  under  Legislation  above.)   o October  28,  2013:  Comments  due  on  draft  report.   o October  30,  2013:  Next  commission  meeting.   o October  31,  2013:  Final  report  submitted  to  legislature  under  extended  schedule.  The  commission   recommended  metrics,  including:  Rate  impact  of  NEM,  DG,  and  other  similar  behind  the  meter   measures  on  different  rate  classes,  both  in  the  short  term  and  over  time  as  part  of  a  cost  benefit   analysis.  One  example  is  the  potential  for  innovative  technologies  to  proliferate  in  some  rate  classes   but  not  others  given  current  energy  economics  and  policy  environment.   MICHIGAN   • Report  on  renewable  energy,  including  discussion  of  DG  and  net  metering   o September  20,  2013:  The  MI  Public  Service  Commission  (PSC)  and  MI  Energy  Office  issued  a  draft   report  that  was  requested  in  November  2012  by  Gov.  Rick  Snyder  after  the  defeat  of  Proposal  12-­‐3.   The  proposal  would  have  amended  the  state  Constitution  to  require  that  25%  of  the  state’s  energy   come  from  renewable  sources  (versus  the  existing  standard  of  10%  by  2015).  Snyder  had  said  he   wanted  to  study  the  issue  for  a  year  to  enable  him  to  make  policy  recommendations  to  the   legislature  in  2014.  Recommendations  could  include  an  increase  in  the  RES  target.   o October  16,  2013:  Comments  due.   o November  4,  2013:  Final  report  released.   Timeline of Key State Activities on Net Energy Metering 30   o December  19,  2013:  The  Governor  announced  goals  for  an  energy  policy  that  moves  the  state   toward  a  clean  energy  policy  standard.  The  Governor  is  expected  to  issue  legislative  policy   recommendations  with  the  annual  energy  report  to  the  legislature.   MINNESOTA   Rates  and  Regulation     • Establishment  of  distributed  value  of  solar  (VOS)  methodology  per  H.F.  729,  MN  Public  Utilities   Commission  (PUC)  Docket  No.  E999/M-­‐14-­‐65   o January  31,  2014:  Filing  of  proposed  tariff  methodology  by  MN  Department  of  Commerce  (DOC),   Division  of  Energy  Resources.  (See  item  below  for  MN  DOC  implementation  of  H.F.  729.)  The  PUC   must  approve,  modify  with  DOC’s  consent,  or  disapprove  the  methodology  within  60  days. The  PUC   is  seeking  comments  on  two  questions:  1)  Whether  the  proposed  methodology  complies  with  the   statute,  and  2)  the  reasonableness  of  the  proposed  methodology.   o February  13,  2014:  Initial  comments  due.   o February  20,  2014:  Reply  comments  due.   o March  4,  2014:  Informational  meeting  to  help  PUC  understand  DOC  proposal.   o March  12,  2014:  PUC  deliberation.  Oral  comments  to  be  heard.     • Implementation  of  H.F.  729:  MN  DOC  development  of  proposed  VOS  tariff  methodology  for  approval   by  the  MN  PUC.  The  DOC  is  holding  a  series  of  workshops  for  stakeholders  on  VOS  tariff  methodology.   Utilities  that  adopt  a  VOS  tariff  as  an  alternative  to  net  metering  or  as  a  rate  for  community  solar   gardens  will  be  required  to  follow  the  approved  methodology.  Clean  Power  Research  and  Rocky   Mountain  Institute  are  assisting  DOC.  Information  on  the  proceeding,  including  meeting  agendas,   presentations  and  comments,  is  located  at:  http://mn.gov/commerce/energy/topics/resources/energy-­‐ legislation-­‐initiatives/value-­‐of-­‐solar-­‐tariff-­‐methodology%20.jsp     o September  17,  2013:  Workshop  1  –  overview  of  national  efforts  including  solar  PV  cost/benefit   studies  and  stakeholder  Q&A   o September  20,  2013:  Initial  comments  due.  (For  listing  of  comments  filed,  see  below.)   o October  1,  2013:  Workshop  2  –  will  provide  review  of  a  proposed  approach  to  methodology,   stakeholder  perspectives,  and  identification  of  key  issues  with  a  facilitated  discussion.   o October  15,  2013:  Workshop  3  –  discussion  and  resolution  of  key  issues.   o November  19,  2013:  Workshop  4  –  presentation  of  initial  draft  methodology  and  stakeholder  Q&A.   Draft  VOS  methodology     o December  10,  2013:  Comments  due  on  draft  methodology.  The  Department  is  currently  reviewing   all  comments,  which  will  be  used  to  inform  the  final  draft  VOS  tariff  methodology.   o January  31,  2014:  DOC  submitted  final  draft  methodology  to  PUC.  (See  entry  for  MN  PUC  Docket  No.   E999/M-­‐14-­‐65.)   • Xcel  Energy  community  solar  gardens  program,  Docket  No.  E002/M-­‐13-­‐867   o September  30,  2013:  As  required  by  H.F.  729,  Xcel  Energy  filed  a  petition  with  the  MN  PUC   requesting  approval  of  a  proposed  community  solar  gardens  program.  Compensation  would  be   provided  at  the  applicable  retail  rate  in  the  absence  of  a  VOS  tariff.    Xcel  Energy  proposed  to  accept   Timeline of Key State Activities on Net Energy Metering 31   • applications  from  solar  developers  to  develop  the  gardens.  Xcel  Energy  would  seek  2.5  MW  per   quarter  for  a  total  of  up  to  20  MW.  (The  H.F.  729  requirement  is  voluntary  for  other  utilities.  The   utility  that  offers  the  program  may  own  the  PV  system.)   o November  6,  2013:  Initial  comments  due.     o December  3,  2013:  Supplemental  initial  comments  due.   o December  17,  2013:  Reply  comments  due  on  extended  schedule.  The  PUC  is  currently  reviewing  all   comments  and  will  proceed  accordingly.   o February  18,  2014:  Oral  argument.   o February  20,  2014:  PUC  deliberation.  PUC  gave  preliminary  approval,  including  purchase  at  the  retail   rate  and  consumer  protections.   o February  27,  2014:  PUC  deliberation.  The  PUC  came  to  a  final  decision  requiring  Xcel  Energy  to  refile   its  plan/tariff  with  several  modifications  within  30  days  of  issuance  of  a  written  order.     Possible  amendments  to  rules  governing  cogeneration  and  small  power  production,  including  NEM,   Docket  No.  E-­‐999/R-­‐13-­‐729.  Possible  amendments  under  consideration  by  the  MN  Public  Utilities   Commission  (PUC)  include:  1)  increasing  the  net-­‐metering  threshold  capacity;    2)  establishing  a  new   annual  billing/crediting  method;  3)  prohibiting  certain  standby  charges;  4)  requiring  public  utilities  to   aggregate  meters  for  net  metering  at  the  request  of  customers;  5)  authorizing  the  commission  to  limit   cumulative  generation  from  net-­‐metered  customers  and  permitting  a  public  utility  to  request  that  the   commission  set  these  limits;  6)  authorizing  public  utilities  to  limit  capacity  to  120%  of  demand  for  wind   customers  and  to  120%  of  energy  consumption  for  solar  PV  customers;  and  7)  changing  requirements   governing  the  uniform  statewide  contract  to  incorporate  the  new  net-­‐metering  threshold  for  facilities   interconnecting  to  a  public  utility.    The  amendments  would  likely  affect  public  utilities,  cogenerators,   small  power  producers,  municipal  electric  utilities,  net  -­‐metered  customers,  and  those  wanting  to   interconnect  with  a  public  utility.     o August  26,  2013:  Notice  of  request  for  comments  (pdf  pg.  278).   o September  30,  2013:  Comments  due.  Staff  has  not  released  a  draft  proposal.   o December  12,  2013:  The  PUC  authorized  the  appointment  of  an  advisory  committee,  with  size  and   composition  to  be  determined  by  the  Executive  Secretary.  Staff  will  prepare  draft  rules  for  review   and  approval  by  the  committee  as  soon  as  practicable.     Legislation   o H.F.  729  (2013):  Sets  1.5%  solar  DG  target  by  2020  in  addition  to  existing  RES  of  25%  by  2025.  (Xcel   Energy’s  RES  is  30%  by  2025.)  10%  of  1.5%  carve-­‐out  must  be  met  with  projects  20  kW  or  smaller.   Certain  large  industrial  retail  customers,  co-­‐ops  and  municipals  are  not  included  in  solar  carve-­‐out   calculation.  (Defeated  were  provisions  to  impose  a  4%  solar  carve-­‐out  and  1.33%  tax  on  electric  bills  to   fund  small  solar  incentives.)  Also  provides:   ! Compensation  for  net  metered  customers  at  retail  rate  to  40  kW  and  at  avoided  cost  for  40   kW  to  1  MW   ! Above  40  kW,  DG  must  be  sized  to  load,  i.e.,  no  larger  than  120%  of  customer  need.   ! Multiple  account  tie-­‐in  (aggregation)  allowed  under  net  metering   ! PV  and  solar  thermal  incentive  funding  from  conservation/renewable  development  fund   programs   Timeline of Key State Activities on Net Energy Metering 32   MN  Department  of  Commerce  (DOC)  to  develop  a  value  of  solar  (VOS)  tariff  methodology   for  approval  by  the  MN  PUC.   ! VOS  tariff  may  be  developed  and  offered  by  utilities  in  lieu  of  retail  rate  under  net  metering;   if  less  than  retail  price,  must  wait  three  years  to  offer   ! “Solar  garden”  DG  subscription  program  must  be  offered  by  Xcel  and  may  be  offered  by   other  utilities  to  allow  multi-­‐party  shared  ownership  of  DG  units   ! Investor-­‐owned  utilities  may  petition  to  limit  further  DG  once  their  system  saturation  equals   4%  of  annual  sales   ! Co-­‐ops  have  less  aggressive  DG  requirements     o May  23,  2013:  Enacted.       Note:  A  report  by  Mid-­‐Atlantic  SEIA  is  cited  by  MN  SEIA  in  its  initial  comments:  The  Value  of  Distributed  Solar   Electric  Generation  to  New  Jersey  and  Pennsylvania,  http://mseia.net/site/wp-­‐ content/uploads/2012/05/MSEIA-­‐Final-­‐Benefits-­‐of-­‐Solar-­‐Report-­‐2012-­‐11-­‐01.pdf   ! MISSOURI   Rates  and  Regulation     • KCP&L  Greater  Missouri  Operations  2013  RES  compliance  plan,  Docket  No.  ET-­‐2014-­‐0026  CLOSED   o July  5,  2013:  KCP&L-­‐GMO  filed  motion  and  tariff  with  the  MO  Public  Service  Commission  (PSC)  in   proceeding  on  2013  RES  compliance  plan  (filed  May  28,  2013,  Docket  No.  EO-­‐2013-­‐0505)  to  suspend   payment  of  certain  solar  rebates  from  September  3,  2013,  through  December  31,  2013.  KCP&L-­‐GMO   said  it  otherwise  will  be  out  of  compliance  with  the  state  RES,  which  imposes  a  1%  rate  increase  cap   on  compliance  activities.  KCP&L-­‐GMO  said  it  is  trying  to  protect  customers  who  do  not  receive   rebate  payments  “from  paying  a  subsidy  that  is  no  longer  rationally  related  to  the  solar  market.”     o August  1,  2013:  The  PSC  issued  an  order  separating  the  motion  from  the  proceeding  on  the  RES   plan.  Staff  filed  a  recommendation  to  reject  the  motion  and  require  more  evidence  from  KCP&L-­‐ GMO.  As  an  alternative,  staff  recommended  a  30-­‐day  suspension  of  the  proposed  tariff  to  October   3,  2013.   o September  4,  2013:  The  PSC  closed  the  docket  upon  withdrawal  by  KCP&L-­‐GMO  of  the  tariff.  The   PSC  concurrently  opened  a  new  docket,  No.  ET-­‐2014-­‐0059,  to  consider  a  similar  tariff  filing  KCP&L-­‐ GMO  made  concurrently  on  September  4,  2013.  (See  item  below.)     • KCP&L  Greater  Missouri  Operations  (GMO)  solar  rebates,  Docket  No.  ET-­‐2014-­‐0059   o September  4,  2013:  GMO  filed  a  motion  and  tariff  with  the  MO  PSC  to  suspend  solar  rebates  in   accord  with  a  new  law,  H.B.  142,  no  later  than  November  3,  2013.  GMO  said  it  reached  the  1%  cap   in  July  2013.  Under  provisions  of  H.B.  142,  the  PSC  is  required  to  decide  the  case  within  60  days  of   filing.  This  filing  differs  from  an  earlier  filing  (Docket  No.  ET-­‐2014-­‐0026,  above)  in  that  it  was  filed   pursuant  to  the  provisions  of  H.B.  142.  (For  more  detail  on  H.B.  142,  see  item  below.)   o September  10,  2013:  KCP&L-­‐Missouri  (KCP&L)  filed  a  similar  application  (Docket  No.  ET-­‐2014-­‐0071,   consolidated  with  ET-­‐2014-­‐0059)   o October  3-­‐4,  2013:  Evidentiary  hearing.     Timeline of Key State Activities on Net Energy Metering 33   October  10,  2013:  Non-­‐unanimous  settlement  filed  that  converts  the  remaining  years  of  the  rebate   program,  which  extends  up  to  2010,  to  a  dollar  amount.  KCP&L  and  GMO  would  stop  making   payments  once  the  amount  is  reached,  regardless  of  how  soon  it  happens.  Settlement  signed  by   companies,  staff,  solar  interests,  consumer  advocate,  and  others.     o October  23,  2013:  On-­‐the-­‐record  presentation  for  parties  to  answer  questions  from  the  bench  about   the  settlement.   o October  30,  2013:  The  PSC  issued  a  final  order,  effective  November  10,  2013,  approving  the   specified  levels  that  KCP&L  ($36.5  million)  and  GMO  ($50  million)  must  reach  before  suspending   payments.  The  order  also  states  that  the  1%  retail  rate  impact  cap  will  be  addressed  in  a  separate   rulemaking  docket,  which  has  not  yet  been  opened.    Order  approving  stipulation  and  agreement       • Ameren  Missouri  solar  rebates,  Docket  No.  ET-­‐2014-­‐0085   o October  11,  2013:  Ameren  filed  a  petition  similar  to  that  of  KCP&L  in  Docket  No.  ET-­‐2014-­‐0059  and   is  discussing  a  similar  settlement  (above).  By  law  the  PSC  must  act  within  60  days  of  the  application.     o November  4,  2013:  Settlement  conference.   o November  8,  2013:  Hearing.   o November  13,  2013:  The  PSC  approved  a  settlement  reached  by  Ameren,  staff,  Office  of  Public   Counsel,  and  solar  and  other  groups  similar  to  a  settlement  reached  in  the  KCP&L/GMO  cases   (above).  The  settlement  provides  for  Ameren  to  continue  making  rebate  payments  until  a  dollar  cap   is  reached:  $91.9  million  incurred  after  July  31,  2012.  Ameren  spent  $21.9  million  on  rebates   between  August  1,  2012,  and  October  31,  2013,  according  to  the  agreement.   Legislation     • H.B.  1795:  Would  redefine  "customer  generator"  to  include  those  “supplied  electricity  by  an  electric   utility  that  has  as  an  electric  generating  system  with  a  capacity  of  not  more  than  one  megawatt”  and   that  may  not  be  sized  to  exceed  100%  of  its  own  requirements.  Would  require  the  MO  PSC  to  define  net   metering  as  a  demand-­‐side  program  and  develop  cost  recovery  measures  that  allow  utilities  to  recover   reasonable  costs  related  to  net  metering.   o February  10  &18,  2014:  Introduced  and  referred  respectively  to  Utilities  Committee.   o February  26,  2014:  Hearing  held.     • H.B.  142  (2013):  Amends  solar  rebate  requirements  to  provide  for  the  step  down  of  the  solar  rebate   over  7  years  beginning  in  2014  while  providing  certain  protections  to  solar  installers  and  utilities.   Utilities  may  choose  to  offer  solar  rebates  after  the  phase-­‐out  period,  and  they  may  suspend  rebate   payments  at  any  time  to  the  extent  such  payments  would  cause  the  utility  to  exceed  the  1%  retail  rate   increase  cap  imposed  by  the  state  RES  on  compliance  activities.  Utilities  would  own  solar  renewable   energy  credits  related  to  solar  projects  for  which  rebates  are  provided.     o July  3,  2013:  Enacted.     o August  28,  2013:  Became  effective.     • H.B.  2064:  Would  require  utilities  to  make  solar  rebates  for  new  or  expanded  solar  electric  systems  of   less  than  25  kW/system  available  to  public  schools,  public  and  private  institutions  of  higher  education,   private  schools,  charter  schools  and  nonprofit  organizations.  Compliance  costs  would  be  limited  to  1%  of   the  utility’s  base  revenue  level  and  retail  rate  increases  for  compliance  would  be  prohibited.   o Timeline of Key State Activities on Net Energy Metering 34   o March  4,  2014:  Introduced.     • • • S.B.  598:  Modifies  provisions  relating  to  the  renewable  energy  standard.  Text  not  yet  available.   o December  3,  2013:  Filed.     S.B.  871:  Would  requires  all  net  excess  energy  be  carried  forward  from  month-­‐to-­‐month  and  credited   one-­‐to-­‐one  against  the  customer-­‐generator's  energy  consumption  in  subsequent  months;  net  excess   energy  may  be  accumulated  over  multiple  billing  periods  except  any  accumulation  remaining  in  a   customer-­‐generator's  account  shall  expire,  without  compensation,  as  the  end  of  March  billing  period  of   a  12-­‐month  billing  period  or  when  the  customer-­‐generator  discontinues  service  or  terminates  NEM.   o February  13,  2014:  Introduced.   o March  6,  2014:  Referred  to  Commerce,  Consumer  Protection,  Energy  and  the  Environment   Committee.     S.C.R.  35:  Would  establish  Joint  Committee  on  Missouri's  Energy  Future  and  Fuel  Sources.  The   committee  would  make  recommendations  in  several  areas,  including  solar  energy/calculation  of  VOS,   and  battery  storage  technology  and  the  future  of  energy  capture,  renewable  energy  firming,  frequency   leveling,  and  peak  load  shaving.       o February  20,  2014:  Introduced.   MONTANA   • S.B.  247:  Would  increase  the  net  metering  cap  on  a  customer’s  generating  capacity  from  50  kW  to  100   kW.     o February  26,  2013:  Failed  in  Senate  on  26-­‐24  vote.   NEBRASKA   Legislation   • •   L.B.  557:  Would  allow  a  community  solar  garden  (solar  electric  generation  facility)  to  be  owned  by  a   subscriber  organization  and  provide  renewable  electricity  to  customers.  If  electricity  output  of  the  solar   garden  is  not  fully  consumed,  the  local  distribution  utility  is  required  to  purchase  the  remaining   renewable  energy.     o March  5,  2013:  Hearing  held  by  Natural  Resources  Committee.  Will  carry  over  to  next  session.     L.B.  818:  Changes  NEM  provisions  by  increasing  capacity  from  25  kWh  to  125  kWh  under  the  definition   of  a  "qualified  facility."  States  that  nothing  prevents  a  local  distribution  utility  from  entering  into  other   arrangements  with  customers  desiring  to  install  electric  generating  equipment  or  from  providing  NEM  to   customer-­‐generators  having  renewable  generation  units  above  125  kWh.   o January  10,  2014:  Introduced  and  referred  to  Natural  Resources  Committee.   o February  13,  2014:  Hearing  held.  No  action  taken.     Timeline of Key State Activities on Net Energy Metering 35   NEVADA   Legislation   • • A.B.  428  (2013):  Makes  substantial  changes  to  solar,  waterpower  and  wind  programs  and  requires  the   Public  Utilities  Commission  of  Nevada  (PUC)  to  open  an  investigatory  docket  on  the  costs  and  benefits  of   net  metering.  (See  item  below.)   o June  11,  2013:  Enacted.       S.B.  252  (2013):  Revises  the  state  RES  by  gradually  eliminating  energy  efficiency  as  an  eligible  resource,   eliminating  the  DG  credit  multiplier,  changing  requirements  for  RECs  including  carry-­‐forward  provisions,   and  requiring  a  PUC  report  on  RECs.   o June  6,  2013:  Enacted.   Rates  and  Regulation   • • Generic  investigation  on  net  metering,  Docket  No.  13-­‐07010.     o July  8,  2013:  Per  A.B.  428,  the  NV  PUC  opened  an  investigation  to  examine  costs  and  benefits  of  net   metering  in  Nevada.   o August  23,  2013:  Comments  due.   o September  6,  2013:  Reply  comments  due.   o September  12,  2013:  Public  workshop  to  discuss  comments.   o October  7,  2013:  Report  on  costs/benefits  of  DG  released  by  Interstate  Renewable  Energy  Council   and  filed  in  docket  at  request  of  Commissioner  Noble.  The  report  looks  at  “lessons  learned”  from  16   regional  and  utility-­‐specific  distributed  solar  generation  cost/benefit  studies  summarized  by  Rocky   Mountain  Institute  and  proposes  standardized  valuation  methodology  for  PUCs  to  consider   implementing  in  future  studies.  Report:  http://www.irecusa.org/wp-­‐ content/uploads/2013/10/IREC_Rabago_Regulators-­‐Guidebook-­‐to-­‐Assessing-­‐Benefits-­‐and-­‐Costs-­‐of-­‐ DSG.pdf     o October  10,  2013:  The  PUC  issued  an  informal  solicitation  for  a  consultant  to  work  with  regulatory   staff  to  produce  a  study  of  the  costs  and  benefits  of  net  metering  in  Nevada.   http://puc.nv.gov/uploadedFiles/pucnvgov/Content/Home/Documents/InformalSolicitationNetMet eringStudy.pdf     o October  17,  2013:  The  PUC  formed  a  stakeholder  committee,  whose  members'  names  were  due  on   this  date.  Members  are  NV  Energy,  IREC,  PUC  Regulatory  Operations  Staff  and  Bureau  of  Consumer   Protection.   o November  5,  2013:  Proposals  due,  per  solicitation  above.   o November  7,  2013:  Stakeholder  committee  meeting  to  discuss  consultant  proposals.   o February  and  May  2014:  Stakeholder  committee  meetings.  Additional  meetings  may  be  scheduled   as  necessary.   o May  1,  2014:  Expected  completion  of  draft  study  by  E3  Consulting.   o July  1,  2014:  Final  study  completed.   o October  1,  2014:  The  PUC  will  submit  a  final  report  to  the  state  Legislature  by  Oct.  1,  2014.       Sierra  Pacific  Power  general  rate  case,  Docket  No.  13-­‐06002,  et  al.   Timeline of Key State Activities on Net Energy Metering 36   o o o December  16,  2013:  The  PUC  voted  to  approve  an  increase  in  the  basic  service  charge  paid  by  single-­‐ family  residential  customers  from  $9.25  to  $17.50  per  month  starting  Jan.  1,  2014,  to  end  cost-­‐of-­‐ service  subsidies  in  volumetric  rates.     December  18,  2013:  Order  issued.   January  3,  2014:  The  Attorney  General’s  Bureau  of  Consumer  Protection  filed  a  petition  for   reconsideration.  The  BCP  asked  the  commission  to  lower  the  service  charge  to  the  BCP-­‐supported   level  (no  increase),  or  minimum  amounts  supported  by  staff  ($13)  or  the  company  ($15).  The  BCP  is   concerned  that  a  higher  charge  sends  an  inappropriate  price  signal  that  would  discourage  energy   efficiency  and  conservation.     NEW  HAMPSHIRE   Legislation       • S.B.  98  (2013):  Authorizes  group  net  metering  for  businesses  and  municipalities.   o July  24,  2013:  Enacted.     Rates  and  Regulation   • Implementation  of  S.B.  98,  group  net  metering  (above)  (Docket  No.  DRM  13-­‐311) o November  1,  2013:  PUC  open  meeting  to  discuss  initial  proposal.  The  PUC  released  notice  of  a   proposed  interim  rule  for  public  review.  There  is  no  associated  comment  period  at  this  time.  The   proposed  amendments  would  implement  group  net  metering  by  establishing  a  registration  process   for  hosts,  minimum  requirements  for  agreements  among  hosts  and  their  members,  duties  of  the   distribution  utility,  required  annual  reports,  sanctions,  and  forms.   o December  19,  2013:  The  Joint  Legislative  Committee  on  Administrative  Rules  will  consider  the   interim  rule  for  adoption.   o January  9,  2014:  Notice  of  interim  rule  published;  effective  date  is  January  3,  2014. o July  2,  2014: Interim  rule  expires.  The  PUC  will  work  on  finalizing  a  rule  in  2014. Other  Initiatives   •   Development  of  state  energy  strategy.   o October  10,  2013:  The  NH  Office  of  Energy  and  Planning  held  an  organizational  meeting  to  discuss   the  development  of  a  state  energy  strategy,  per  S.B.  191,  which  requires  preparation  of  a  10-­‐year   energy  strategy.  The  strategy  must  include  a  section  on  small-­‐scale  and  distributed  energy  resources   and  energy  storage  technologies  and  their  potential  in  the  state.  The  Office  is  working  in   consultation  with  the  State  Energy  Advisory  Council,  as  required  by  S.B.  191.   o November  5  &  December  17,  2013:  Advisory  Committee  meetings  held.   o January  24,  February  21,  2014:  Advisory  Committee  meetings  held.   o March  7  &  21,  2014:  Advisory  Committee  meetings  scheduled.  Agenda  for  March  7.   o March  14,  2014:  Webinar  to  discuss  preliminary  Resource  Potential  Study.     Timeline of Key State Activities on Net Energy Metering 37   NEW  JERSEY   Rates  and  Regulation   • • Updates  to  renewable  energy  and  energy  efficiency  rules  are  being  discussed  generally  by  the  NJ  Board   of  Public  Utilities  (BPU).  Staff  established  a  net  metering  and  interconnection  technical  working  group  to   engage  stakeholders  and  support  the  ongoing  discussions.  The  working  group  met  several  times  in  2012   and  earlier  in  2013.   o November  1,  2013:  Working  group  meeting.   o March  25,  2014:  Working  group  meeting.     Generic  proceeding,  aggregated  net  metering,  Docket  No.  EO12090832V,  et  al.   o March  20,  2013:  The  NJ  BPU  adopted  new  rules  to  codify  new  statutory  requirements  enacted   through  the  Solar  Act  of  2012.  The  rules  allow  governmental  customers  to  aggregate  eligible   facilities  for  the  purpose  of  sizing  the  system.   Legislation   • • S.  1295  (2012):  Solar  Act  of  2012  restructures  state  energy  policies  including  solar  program.  Amends   guidelines  for  net  metering  of  small  scale  solar  facilities.  Caps  total  amount  of  new  projects  (80  MW  for   projects  that  are  not  net  metered,  not  an  on-­‐site  generating  facility,  not  eligible  for  net  metering   aggregation,  or  not  certified  for  certain  locations  such  as  brownfields).  Provides  for  certain  government   entities  to  engage  in  virtual  aggregated  net  metering  for  multiple  facilities.  Raises  minimum  annual  solar   targets  through  2017  but  lowers  targets  from  current  mandates  for  years  thereafter.  Reduces  cost  of   solar  alternative  compliance  payments.  Extends  from  three  to  five  years  the  period  in  which  solar  and   wind  RECs  can  be  used.  Exempts  existing  long-­‐term  power  supply  contracts  from  inclusion  in  utility   generation  profiles  for  purposes  of  calculating  annual  solar  targets.  Provides  incentives  for  grid  supply   projects  on  brownfields,  historic  fill  and  landfills.     o July  23,  2012:  Enacted.     A.B.  1384  (November  18,  2013  version):  Would  establish  alternative  energy  portfolio  standard  and   related  certificate  program.  Incentivizes  development  of  CHP  facilities  using  fuel  cell  technology,  which   would  be  considered  a  Class  1  renewable  technology  under  NEM.  Directs  the  BPU  to  provide  that  the   energy  portfolio  standard  and  certificate  program  assist  in  the  creation  of  1500  MW  of  new  CHP  projects   targeted  to  critical  institutional  assets  and  commercial  projects  that  meet  the  specific  requirements  set   forth  in  a  net  positive  benefits  test  required  pursuant  to  the  bill.    Authorizes  the  BPU  to  regulate  standby   charges  charged  by  electric  power  suppliers  and  basic  generation  service  providers.  (Companion  bill  –   S.B.  2651)   o February  7,  2013:  Hearing  held;  amended  and  passed  5-­‐1  Assembly  Telecommunications  and   Utilities  Committee.  East  Clean  Energy  Center  testified  in  support  of  this  proposal  as  did  Mid  Atlantic   Solar.  Several  utilities  expressed  concerns  with  the  proposal.   o November  18,  2013:  Hearing  held;  amended  and  passed  Assembly  Appropriations  Committee.   o December  19,  2013:  Amended  on  Assembly  floor.  Amendment  language  not  yet  available.   o January  14,  2014:  Failed  upon  adjournment.   Timeline of Key State Activities on Net Energy Metering 38   NEW  MEXICO   • Generic  rulemaking  on  reasonable  cost  threshold  and  diversity  requirements  of  renewables  portfolio   standard  (RPS),  Docket  No.  13-­‐00152-­‐UT   o May  1,  2013:  The  NM  Public  Regulation  Commission  (PRC)  voted  to  end  a  case  in  which  it  was   rehearing  a  December  2012  order  that  made  significant  changes  to  existing  RPS  requirements.  The   commission  instead  agreed  to  open  a  new  rulemaking  to  consider  eliminating  its  “diversity   requirement”  and  making  other  changes,  including  the  calculation  of  avoided  cost  in  determining   the  RPS  “reasonable  cost  threshold.”  The  reasonable  cost  threshold  rule  excuses  utilities  from  RPS   compliance  if  adding  renewables  to  their  supply  portfolios  exceeds  3%  of  total  revenues.  The  related   diversity  rule  provides  for  a  certain  percentage  of  solar,  geothermal  and  DG  in  each  utility’s   renewable  supply  mix.  The  diversity  requirements  are  now  set  at:  minimum  30%  for  wind,  20%   solar,  5%  other  technologies,  1.5%  DG  (2011-­‐2014)  and  3%  DG  by  2015.  Solar  advocates  have  said   that  elimination  of  the  diversity  rule  would  decimate  small  solar  in  the  state.  New  Mexico  is  one  of   the  few  states  whose  net  metering  program  provides  for  compensation  to  net  metered  customers   at  avoided  cost,  rather  than  at  the  retail  rate.   o July  26,  2013:  Comments  due.   o August  26,  2013:  Reply  comments  due.     o September  10,  2013:  Public  comment  hearing.  The  hearing  attracted  a  large  turnout  of  solar   interests,  which  opposed  the  proposed  rule  changes.   o October  10,  2013:  Record  closed.   o November  20,  2013:  Open  meeting.  The  PRC  voted  to  keep  diversity  but  to  change  the  value  of   RECs,  which  means  utilities  will  be  required  to  procure  less  renewable  energy  to  comply  with  the   RPS.  For  example,  solar  RECs,  which  previously  had  a  value  of  1  REC  =  1  kWh,  now  have  a  value  of  2   RECs  =  1  kWh.  The  commission  also  changed  the  calculation  for  the  reasonable  cost  threshold  to   include  all  costs  and  benefits  versus  the  previous  requirement  to  count  only  avoided  fuel  and   purchased  power  costs  and  other  costs  that  could  be  shown  to  impact  the  utility's  expenses  in  the   current  year.  The  decision  is  expected  to  be  challenged  by  solar  and  other  renewables  advocates.   o December  18,  2013:  The  PRC  reversed  its  November  20,  2013,  decision  to  instate  a  two-­‐to-­‐one  value   for  solar  RECs  (2  RECs  =  1  kWh  solar)  and  reinstated  the  previous  one-­‐to-­‐one  status  of  REC  credits.   Solar  and  environmental  interests  had  protested  and  threatened  court  action.   o January  8,  2014:  The  PRC  agreed  to  rehear  the  decision  again.   o February  4,  2014:  Additional  motions  for  rehearing  due.   NEW  YORK   Legislation   • A.B.  3143:  Would  raise  net  metering  cap  to  5%  of  a  utility’s  electric  demand  in  2005  for  solar  and  2%  of  a   utility’s  2005  demand  for  wind.  (Companion  Bill  –  S.B.  2498)   o January  23,  2013:  Introduced  and  referred  to  Assembly  Energy  Committee.   o April  22,  2013:  Meeting  held,  passed  committee  and  referred  to  Ways  and  Means.   o January  8,  2014:  Re-­‐referred  to  Assembly  Energy  Committee.   o February  26,  2014:  Hearing  held;  passed  14-­‐2.  During  the  hearing  Ranking  Member  Palmesano  (R)   stated  that  net  metering  causes  rates  to  go  up  for  communities  and  that  energy  in  the  state  already   Timeline of Key State Activities on Net Energy Metering 39   • • • • • • • • costs  more  than  in  most  states.  Chairwoman  Paulin  (D)  stated  that  net  metering  is  intended  to  drive   renewables.  The  measure  will  next  be  considered  in  the  Assembly  Ways  and  Means  Committee,     where  it  never  received  a  hearing  in  2013.     A.B.  8238:  Would  establish  a  shared  renewable  energy  program  that  increases  access  to  and  accelerates   development  of  renewable  energy,  by  enabling  electric  customers  to  subscribe  to  a  shared  renewable   energy  facility  and  receive  associated  benefits  through  their  utility  bill.  (Companion  bill  –  S.B.  5280)   o November  6,  2013:  Introduced  and  referred  to  Assembly  Energy  Committee.    The  Legislature   recessed  June  22.  Either  chamber  may  return  at  the  call  of  the  leadership  or  the  governor  at  any   time  prior  to  the  convening  of  the  2014  legislative  session  January  8.  All  legislation  carries  over  to   the  2014  session.     A.B.  8307:  Would  require  the  NY  PSC  to  establish  a  new  community  solar  pilot  program.   o December  6,  2013:  Introduced  and  referred  to  Assembly  Committee  on  Energy.       A.B.  8798:  Would  make  non-­‐residential  customers  owning  or  operating  farm  waste  electric  generating   equipment  on  premises  eligible  to  receive  NEM  credits.   o February  14,  2014:  Introduced  and  referred  to  Assembly  Committee  on  Energy.     o February  26,  2014:  Hearing  scheduled.     S.B.  1111  (2013):  Adds  installation  of  net  metering  generating  systems  to  the  measures  eligible  for   financing  through  the  "Green  Jobs/Green  New  York"  Program.    (Companion  Bill  –  AB  1245)   o October  22,  2013:  Enacted.     S.B.  2383:  Would  include  micro-­‐combined  heat  and  power  and  fuel  cell  customer-­‐generators  in  total   rate  reimbursement  from  electric  corporations.  (Companion  Bill  –  AB  6367)   o February  4,  2013:  Meeting  held  and  passed  Senate  Energy  and  Telecommunications  committee.   o June  21,  2013:  Referred  to  Rules  Committee.  Bill  will  carry  over  to  2014  session.       S.B.  2498:  Would  raise  net  metering  cap  to  5%  of  a  utility’s  electric  demand  in  2005  for  solar  and  2%  of  a   utility’s  2005  demand  for  wind.  (Companion  Bill  –  A.B.  3143)   o February  4,  2013:  Meeting  held  and  passed  Senate  Energy  and  Telecommunications  Committee.   o June  21,  2013:  Referred  to  Rules  Committee.  Bill  will  carry  over  to  2014  session.     S.B.  5150:  Would  facilitate  development  of  large  scale  PV  installations  through  net  metering  in  cities  of  1   million  or  more.  It  does  so  by  allowing  solar  PV  systems  with  a  generating  capacity  of  at  least  1,000  kW   to  account  for  a  maximum  of  40  MW  of  net  metering.  (Companion  Bill  –  AB  7311B)   o June  22,  2013:  Passed  Senate  on  63-­‐0  vote  and  transmitted  to  Assembly.     o June  24,  2013:  Referred  to  Assembly  Energy  Committee.  Bill  will  carry  over  to  2014  session.     S.B.  5988:  Would  legislatively  set  a  state  RPS  with  targets  of  30%  for  2015  through  2019,  and  40%,  with   at  least  2%  derived  from  solar,  for  2020.  The  current  state  RPS  was  set  administratively  by  the  PSC  with   a  target  of  30%  by  2015,  subject  to  certain  requirements.  The  bill  provides  that  net  metering-­‐eligible   customer-­‐generators  own  environmental  attributes  as  of  April  1,  2020.   Timeline of Key State Activities on Net Energy Metering 40   o November  20,  2013:  Filed  and  referred  to  Rules  Committee.   Rates  and  Regulation   • • • Three  inter-­‐related  proposals  affecting  NY-­‐Sun  program,  Docket  No.  13-­‐M-­‐0412,  et  al.  Cost  shifting   resulting  from  net  metering  has  been  raised  as  an  issue  in  the  proceeding.   o September  13,  2013:  The  NY  Public  Service  Commission  (PSC)  issued  a  notice  seeking  comments  and   setting  a  technical  conference  on  proposals  affecting  the  NY  Sun  initiative,  including  the  RPS   program.  The  proposals  include  one  by  the  NY  State  Energy  Research  and  Development  Authority   (NYSERDA)  that  seeks,  among  other  things,  the  ability  to  lower  the  existing  standard  offer  PV   incentive  level  on  a  regional  basis  in  response  to  achieving  a  designated  threshold  of  MW  under   contract  (MW  Block  Program),  and  the  ability  to  transition  the  Competitive  PV  program  to  a  MW   Block  performance-­‐based  incentive  program.   o October  15,  2013:  Technical  conference.  Agenda  includes  NY  Sun  petition  review,  RPS  review,  and   opportunity  for  Q&A  on  both.   o October  28,  2013:  Initial  comments  due.   o November  12,  2013:  Reply  comments  due.   o December  19,  2013:  The  PSC  issued  two  orders  in  dockets  in  this  consolidated  proceeding.  One   order  (Docket  No.  03-­‐E-­‐0188  authorizes  NYSERDA  to  reallocate  certain  funds  to  the  solar  PV   programs  in  the  customer-­‐sited  tier  of  the  RPS  and  to  make  program  revisions  in  response  to   changing  markets,  with  the  goal  of  reducing  and  ultimately  eliminating  RPS  incentives  for  PV   programs.  The  other  order  approves  establishment  of  a  Green  Bank  and  initial  capitalization  (Docket   No.  13-­‐M-­‐0412).  The  orders  did  not  address  net  metering.   December  26,  2013:  The  PSC  issued  an  order  approving  changes  to  the  state  energy  efficiency  portfolio   standard  (Docket  No.  07-­‐M-­‐0548).  The  order  did  not  address  net  metering.     Consolidated  Edison,  et  al.,  Docket  No.  12-­‐E-­‐0485,  et  al.   o June  13,  2013:  The  NY  PSC  approved  raising  net  metering  caps  in  accord  with  Gov.  Cuomo’s  NY-­‐Sun   initiative,  announced  in  2012,  to  quadruple  installed  solar  capacity  in  2013  from  the  2011  level.  NY   PSC  increased  each  utility’s  system-­‐wide  net  metering  cap  from  1%  to  3%  of  system  peak  load.   Other  Initiatives   • New  York  State  Draft  Energy  Plan,  2014  Draft,  prepared  by  New  York  State  Energy  Planning  Board,   released  February  2014.  Initiative  5  of  the  plan  seeks  to  coordinate  renewable  energy  policies  to   strategically  harness  resources  in  the  state.  States  that  NY  DPS  and  NYSERDA  and  other  agencies  work  to   create  a  portfolio  of  renewable  energy  programs  with  a  state  commitment  through  2025  to  help  achieve   scale  and  drive  down  the  cost  of  implementation.  The  state’s  approach  to  renewable  energy  would   operate  in  accordance  with  the  following  guiding  principles:  1)  provide  greater  incentive-­‐level   predictability  and  increased  project  revenue  certainty  through  the  state’s  various  renewable  energy   programs  and  policies,  2)  dedicate  state  resources  to  reducing  development  costs  such  as  permitting,   licensing,  stand-­‐by  charges,  regulatory  compliance,  and  customer  acquisition  expenses,  3)  conduct   predevelopment  work  to  accelerate  and  aggregate  economic  opportunities  for  emerging  technologies   and  nascent  markets,  4)  coordinate  with  other  states  to  increase  the  scale  of  clean  energy  projects,  5)   develop  renewable  resources  that  support  community-­‐based  energy  needs,  6)  establish  incentives  that   Timeline of Key State Activities on Net Energy Metering 41   reward  installation  of  new  renewable  power  sources  where  they  can  increase  system  efficiency,   improve  portfolio  diversity  and  contribute  to  the  state’s  environmental  goals.  Materials  are  located:   http://energyplan.ny.gov/Plans/2014.aspx     o February  18,  19,  20  &  25,  2014:  Public  hearings  held.   o March  31,  2014:  Comments  due.   o March  3  &  6,  2014:  Upcoming  public  hearings.   NORTH  CAROLINA     Rates  and  Regulation   • • • Generic  NEM  changes;  potential  Duke  Energy  proceeding  on  NEM,  Docket  No.  E-­‐100,  Sub  83.  This  is  a   longstanding  North  Carolina  Utilities  Commission  (UC)  open  docket  on  NEM  rules.  It  is  not  certain   whether  a  Duke  proceeding  would  be  carried  on  in  this  docket.  However,  filings  are  being  made  here  in   anticipation  of  a  Duke  request  to  address  NEM  cost  shifting.   o February  24,  2014:  The  NC  Sustainable  Energy  Association  (NCSEA)  filed  a  motion  for  the  NC  Utilities   Commission  (UC)  to  take  two  steps  in  anticipation  of  a  Duke  filing:  1)  direct  Duke  to  guarantee  the   availability  of  NEM  terms  and  conditions  for  10  years  from  the  date  of  a  residential/commercial   customer  installation  of  a  net  metered  facility  prior  to  a  commission  ruling  in  any  NEM  proceeding,   and  2)  direct  Duke  to  release  the  analysis  underlying  recent  messaging  on  NEM  cost  shifting.   o March  3,  2014:  The  NC  UC  issued  an  order  requesting  comments  on  the  NCSEA  motion.   o March  17,  2014:  Duke  filed  response,  saying  motion  is  premature  because  there  is  no  pending   proceeding  and  underlying  studies  are  not  yet  complete.  Duke  said  it  has  already  committed  to   releasing  the  studies  once  complete.   o March  21,  2014:  Comments  due.   o April  4,  2014:  Reply  comments  due.     Duke  Energy  Green  Source  Rider,  Docket  No.  E-­‐7,  Sub  1043   o November  15,  2013:  Duke  filed  with  the  NC  Utilities  Commission  (UC)  for  approval  of  a  three-­‐year   experimental  program  under  which  nonresidential,  energy-­‐intensive  customers  could  choose  to   offset  some  or  all  of  their  new  load  with  renewable  energy,  either  owned  by  Duke  or  procured  via   PPAs  from  third  parties.  The  costs  of  the  program  would  not  be  borne  by  nonparticipating   customers.  Renewable  energy  supplied  through  the  program  would  be  in  addition  to  that  needed  to   meet  existing  obligations  under  the  state  RPS.     2012  biennial  proceeding  on  avoided  cost  under  PURPA,  Docket  No.  E-­‐100,  Sub  136.  Utilities  are   seeking  to  lower  avoided  costs,  in  part  due  to  lower  natural  gas  prices.  The  value  of  solar  is  at  issue  in   this  proceeding.     o September  27,  2013:  NC  Sustainable  Energy  Association  (NCSEA)  submitted  testimony  by  Karl  R.   Rabago  and  accompanying  report  prepared  for  NCSEA  by  Crossborder  Energy,  “The  Benefits  and   Costs  of  Solar  Generation  for  Electric  Ratepayers  in  North  Carolina.”  The  study  concludes  that  the   benefits  of  solar  outweigh  the  costs.  Rabago  said  that  traditional  avoided  cost  calculations  do  not   adequately  capture  avoided  costs  associated  with  solar  generation.  He  asked  the  commission  to   Timeline of Key State Activities on Net Energy Metering 42   o o o implement  short-­‐  and  long-­‐term  approaches  to  ensure  that  “full”  avoided  cost  rates  are  offered  to   qualifying  solar  generators.   October  25,  2013:  Dominion  NC  and  Duke  Energy  Progress  jointly  moved  to  strike  NCSEA   correspondence  and  the  report,  citing  noncompliance  with  commission  rules  and  procedures.   October  29,  2013:  Evidentiary  hearing.  Staff  raised  various  concerns  with  methodology,   assumptions,  and  other  aspects  of  the  utility  filings.  Dominion  and  Duke  each  filed  a  settlement  with   staff.     December  20,  2013:  Briefs  and  proposed  orders  due.   Legislation   • • H.B.  298:  Would  repeal  requirements  of  state  RES.     o April  24,  2013:  Defeated  in  House  Committee  on  Public  Utilities  and  Energy  on  18-­‐13  vote.   Stakeholders  are  expected  to  continue  discussions  in  2014  focusing  on  ways  to  resolve  issues   related  to  updating  of  the  RES,  which  has  been  in  place  since  2007  and  requires  investor-­‐owned   utilities  to  meet  a  target  of  12.5%  renewables  by  2021.     Legislative  debate  is  expected  in  2014  on  third-­‐party  solar  financing.     NORTH  DAKOTA   • S.B.  2291:  Would  provide  compensation  to  net  metered  customers  at  retail  rates  (vs.  existing  avoided   cost  rate).     • February  28,  2013:  On  second  reading  in  Senate,  failed  to  pass  44-­‐3.   OHIO   Rates  and  Regulation   • • Generic  proceeding  on  aligning  distribution  rates  with  state  policies  on  competition,  energy  efficiency   and  DG,  including  straight  fixed  variable  rate  (SFV),  Docket  No.  10-­‐3126-­‐EL-­‐UNC   o August  21,  2013:  The  Public  Utilities  Commission  (PUC)  of  Ohio  issued  an  order  finding  that  the  rate   structure  that  may  best  accomplish  Ohio’s  policy  goals  on  competition,  energy  efficiency  and  DG  is   the  SFV  rate  design  and  encouraging  utilities  to  utilize  an  SFV  rate  design  in  their  next  rate  case   filings.  If  utilities  do  not  propose  an  SFV  rate  design,  staff  is  directed  to  do  so.  There  are  no  electric   general  rate  cases  pending  in  Ohio.     o December  4,  2013:  PUC  denied  rehearing.     Five-­‐year  review  of  electric  utility  rules  including  net  metering,  Docket  No.  12-­‐2050-­‐EL-­‐ORD   o November  7,  2012:  The  PUC  recommended  changes  to  net  metering  rules,  including  consideration   of  virtual  net  metering  and  aggregation,  and  sought  comment.     o January  7,  2013:  Comments  due.  (Reply  comments  due  February  6,  2013.)   o August  6,  2013:  Supplemental  comments  due.   o August  16,  2013:  Reply  comments  due.   Timeline of Key State Activities on Net Energy Metering 43   o o January  15,  2014:  Open  meeting.  The  PUC  issued  a  Finding  and  Order  adopting  the  draft   amendments  and  filed  with  the  Joint  Committee  on  Agency  Rule  Review  (JCARR)  for  review.     February  14,  2014:  Requests  for  rehearing  due.     Legislation   • • S.B.  58:  Would  amend  the  law  setting  energy  efficiency  (EE)  and  renewable  standards.  Under  the   existing  renewable  energy  standard  (RES),  at  least  12.5  percent  of  electricity  sold  by  each  electric   provider  must  be  from  renewable  sources,  with  at  least  half  produced  in  state  and  at  least  0.5  percent   from  solar.  The  bill  would  retain  the  overall  target  but  eliminate  the  in-­‐state  requirement  and  count   Canadian  hydropower  as  eligible,  which  would  have  implications  for  the  amount  of  and  location  of  solar   procured  for  compliance.  (Companion  Bill  –  H.B.  302,  below)   o February  27,  2013:  Introduced.   o March  5,  2013:  Referred  to  Senate  Committee  on  Public  Utilities.   o September  9,  October  2,  October  9,  October  22,  2013:  Hearings  held.   o November  6  &  13,  2013:  Hearing  held.     o November  20,  2013:  Hearing  scheduled  but  canceled.   o December  4,  2013:  Vote  scheduled  but  canceled.  This  ends  the  possibility  of  action  this  year,  but  the   bill  sponsor  plans  to  continue  work  on  the  bill  in  2014.     H.B.  302:  (Companion  bill  –  S.B.  58,  above).   o October  16,  2013:  Introduced,  referred  to  House  Committee  on  Public  Utilities.   o October  22  &  30,  November  13,  2013:  Hearings  held.   o November  20  and  December  4  &  11,  2013:  Hearings  held.   o The  committee  adjourned  without  a  vote  and  the  measure  will  be  carried  over  to  2014.  Committee   Chairman  Rep.  Stautberg  (R)  said  he  believes  policymakers  still  "need  to  do  something  in  this  area”   and  that  he  is  also  considering  other  options.  Sen.  Seitz  (R),  one  of  the  prime  supporters  of  the   legislation,  believes  that  more  time  is  needed  for  members  to  review  the  issues.  He  also  laid  out   plans  to  start  hearings  on  a  bill  that  would  eliminate  renewable  and  energy  efficiency  mandates   outright  (S.B.  34).  Senator  Seitz  co-­‐sponsored  S.B.  216  (2012)  an  unsuccessful  attempt  to  completely   repeal  the  requirement  that  electric  distribution  utilities  and  electric  services  companies  provide   25%  of  their  retail  power  supplies  from  advanced  and  renewable  energy  resources  by  2025.     OKLAHOMA   Legislation   • • H.B.  2268:  Would  change  the  current  renewable  energy  goal  from  15%  by  2015  to  20%  by  2020.   o January  31,  2014:  Referred  to  House  Energy  and  Aerospace  Committee.  Carried  over  from  2013.     H.B.  2605:  Directs  the  OK  Corporation  Commission  to  set  an  RPS.   o January  17,  2014:  Prefiled.   o January  31,  2014:  Referred  to  House  Energy  and  Aerospace  Committee.     Timeline of Key State Activities on Net Energy Metering 44   • S.B.  1456  (February  20  version):    States  that  no  retail  electric  supplier  shall  increase  rates  charged  or   enforce  a  surcharge  above  that  required  to  recover  the  full  costs  necessary  to  serve  a  customer  who   installs  DG  on  the  customer's  side  of  the  meter  after  the  effective  date  of  this  act.  States  that  no  retail   electric  supplier  shall  allow  a  customer  with  DG  to  be  subsidized  by  customers  in  the  same  class  of   service  who  do  not  have  distributed  generation.   o January  16,  2014:  Introduced  and  referred  to  Senate  Energy  Committee.   o February  20,  2014:  Hearing  held.  Amended  and  passed.  Amended  text  establishes  definition  for  DG   and  states  utility  responsibilities  for  customers  with  DG.   OREGON   Legislation     • January  17,  2014:  The  House  Interim  Committee  on  Energy  and  Environment  will  host  an  informational   public  hearing  to  discuss  various  legislative  concepts  as  well  as  topics  relating  to  net  metering  and   renewable  portfolio  standards.  In  Oregon  a  Legislative  Concept  (L.C.)  is  a  draft  of  an  idea  for  legislation   that  is  prepared  by  Legislative  Counsel.  If  the  committee  decides  to  formally  introduce  this  L.C.  as  a  bill  it   will  receive  a  new  bill  number.  The  Committee  will  hear  testimony  regarding  L.C.  54,  Relating  to  Net   Metering  of  Energy  Produced  by  Marine  Resources,  from  Lt.  Col.  Ken  Safe  of  the  United  State  Army   Corps  of  Engineers  as  well  as  Richard  Williams,  Director  of  Columbia  Region  Leidos  Maritime  Solutions.   Lisa  Schwartz,  Director  of  the  Department  of  Energy,  will  present  testimony  and  legislative   recommendations  on  renewable  portfolio  standards  in  Oregon  along  with  Ted  Case,  Executive  Director   of  Oregon's  Rural  Electric  Cooperative  Association,  Varner  Seaman,  Policy  Director,  Renewable   Northwest  Project  and  Scott  Bolton,  Vice  President,  Community  and  Government  Relations  for  Pacific   Power.  The  committee  meeting  will  be  open  to  the  public,  however,  only  invited  testimony  will  be   accepted.       • H.B.  2435  (2013):  Expands  eligible  technologies  for  net  metering  to  include  geothermal.   o July  25,  2013:  Enacted.       • H.B.  2893  (2013):  Extends  and  slightly  expands  solar  feed-­‐in  tariff  (FIT)  pilot.  Requires  the  OR  Public   Utility  Commission  (PUC)  to  study  the  effectiveness  of  existing  solar  PV  incentive  programs,  including   investigation  of  solar  resource  value,  the  costs/benefits  of  the  programs  for  retail  electricity  customers   and  how  those  costs/benefits  are  distributed.  The  PUC  must  make  recommendations  for  modifying  the   programs  or  establishing  new  ones  to  provide  solar  incentives  that  are  cost-­‐effective  and  protective  of   ratepayers,  including  non-­‐participating  ratepayers.  Increases  the  program  capacity  cap  for  existing   volumetric  incentive  rate  pilot  for  solar  PV,  from  25  MW  to  27.5  MW,  and  extends  expiration  date  from   March  2015  to  March  2016.  The  program  allocates  capacity  by  investor-­‐owned  utility,  geographic   region,  and  for  small  and  large  systems  –  20  of  the  25  MW  was  reserved  for  net  metered  systems  <  100   kW.  PUC  must  craft  new  rules  for  allocating  extra  2.5  MW;  no  deadline  specified.     o May  28,  2013:  Enacted.       Timeline of Key State Activities on Net Energy Metering 45   • H.B.  4042:  Would  add  renewable  marine  energy  to  types  of  energy  eligible  for  NEM.  If  located  on   territorial  sea  or  outer  continental  shelf,  it  is  deemed  directly  interconnected  to  the  customer-­‐ generator’s  premises.   o January  23,  2014:  Prefiled  and  referred  to  Committee  on  Energy  and  Environment.   o February  4,  2014:  Hearing  held.  Amended  and  passed.   o February  11,  2014:  Passed  House  58-­‐0.   o February  17,  2014:  Referred  to  Senate  Rural  Communities  and  Economic  Development.   o February  20,  2014:  Hearing  held  and  passed  4-­‐0.   o March  6,  2014:  Signed  by  Gov.  Kitzhaber.     Rates  and  Regulation     • PUC  Legislative  Report  to  Comply  with  H.B.  2893  regarding  solar  incentives,  Docket  No.  UM  1673   o October  8,  2013:  Workshop  held  for  this  docket  and  Docket  No.  UM  1452  (below),  per  H.B.  2893.   Staff  and  other  parties  recognized  there  is  not  enough  time  for  a  full,  comprehensive  study.  Among   the  possibilities  is  a  commission  interpretation  of  the  law  as  requiring  what  already  has  been  done   in  proceedings  on  the  existing  solar  FIT  pilot  program,  under  which  utilities  have  filed  resource  value   estimates  that  approximate  avoided  cost.  At  the  workshop,  staff  appeared  to  support  an  avoided   cost  methodology  (avoided  cost  plus  line  losses).   o November  2013:  Staff  issued  list  of  questions  addressing  goals  for  promoting  solar  and  the  role  of   utilities,  evaluation  of  existing  incentive  programs,  resource  value,  costs  and  benefits  of  existing   programs,  forecasting  solar  costs,  program  barriers,  future  development  of  solar  energy  (e.g,  at   what  penetration  levels  would  distribution  reliability  be  affected;  what  business  models  best  meet   overall  goals.)     o December  18,  2013:  Responses  to  questions  due.  The  Alliance  for  Solar  Choice  filed  comments  one   day  after  it  petitioned  to  intervene.  Numerous  other  solar  and  renewable  interests  have  intervened   as  well.   o January  16,  2014:  Public  workshop.  The  agenda  can  be  found  at  this  PUC  webpage.  Solar  advocates,   including  SolarCity  representing  TASC,  pushed  for  more  fully  exploring  the  costs  and  benefits  of  solar   programs  and  the  value  of  solar.  Commissioners  said  they  are  not  interested  in  more  studies  and   that  there  is  enough  information  now  in  the  public  domain  that  can  be  synthesized  for  use,   according  to  a  participant.  Commissioners  also  expressed  hesitation  about  addressing  many  issues   at  once,  preferring  to  have  a  relatively  limited  scope  that  enables  them  to  move  forward  while   avoiding  a  major  fight  among  competing  interests.  No  additional  workshops  are  scheduled.   o March  2014:  Parties  to  the  docket  expect  a  draft  report  from  the  commission  around  March.  Parties  will   have  an  opportunity  to  submit  comments  to  the  draft.  Parties  are  having  ongoing  informal  discussions  with   Commission  Staff  during  this  process.   o July  1,  2014:  PUC  study  due  to  legislature.     • Volumetric  Incentive  Rates  and  FIT  capacity  allocation,  Docket  No.  UM  1452   o October  8,  2013:  Workshop  held  for  this  docket  and  Docket  No.  UM  1673  (above),  per  H.B.  2893.   2893.  Half  of  the  session  addressed  allocation  of  an  additional  2.5  MW  of  FIT  capacity.  Staff  favored   a  60/40  split  between  small  and  medium  systems  (small  =  5-­‐10  kW)  and  offering  the  capacity  in  April   2014.The  other  half  of  the  workshop  addressed  the  PUC  report  to  the  legislature  on  solar  incentives.   Timeline of Key State Activities on Net Energy Metering 46   November  5,  2013:  Settlement  conference  on  FIT  capacity  allocation.   November  15,  2013:  Comments  due  on  FIT  capacity  allocation.   January  3,  2014:  More  comments  due.   January  22,  2014:  Order  issued  approving  incentive  rates  for  small  and  medium  scale  projects.   The  PUC  issued  a  general  report  on  the  Solar  Incentive  Rate  Pilot  Program  for  the  April  1,  2014,   enrollment  period,  which  will  include  the  new  2.5  MW  of  capacity  per  H.B.  2893.  Other  documents   in  the  docket  are  located  at:  http://apps.puc.state.or.us/edockets/docket.asp?DocketID=15820         Investigation  into  appropriate  calculation  of  solar  PV  resource  value,  Docket  No.  UM  1559   o October  18,  2012:  The  OR  PUC  issued  an  order  broadening  the  scope  of  utility  reporting   requirements  under  the  existing  statutory  solar  PV  pilot  program.  Utilities  must  use  a  variety  of   methods  including  standard  avoided  cost  methodology  to  enable  comparison  of  the  results.   o o o o o • PENNSYLVANIA   Rates  and  Regulation   • • Changes  to  NEM,  interconnection  and  compliance  rules  under  the  Alternative  Energy  Portfolio   Standards  Act,  Docket  No.  L-­‐2014-­‐2404361     o February  20,  2014:  The  PA  Public  Utilities  Commission  (PUC)  issued  a  Notice  of  Proposed   Rulemaking  proposing  rule  changes  involving  law,  procedure  and  policy.  Various  issues  are  specific   to  NEM  in  a  retail  choice  state.  The  PUC  will  accept  written  comments  until  30  days  after  the   proposed  rules  are  officially  published  in  the  Pennsylvania  Bulletin.  The  rules  have  not  yet  been   officially  published;  the  Pennsylvania  Bulletin  is  released  on  Fridays.     Net  metering  default  service  in  context  of  investigation  into  the  retail  energy  market  in  PA,  Docket  No.   I-­‐2011-­‐2237952.   o February  15,  2013:  The  PA  Public  Utility  Commission  (PUC)  ordered  the  formation  of  a  working   group  to  explore  recommendations  regarding  provision  by  alternative  retail  service  providers  of   default  service,  the  potential  for  providing  net  metering  benefits,  and  cost  recovery.   o November  15,  2013:  Working  group  was  required  to  file  a  report  with  the  PUC.  However,  the   deadline  is  delayed  in  light  of  introduction  of  S.B.  1121  (below).  A  new  deadline  has  not  been  set.   Legislation   • • • H.B.  1912:  Would  repeal  the  Alternative  Energy  Portfolio  Standards  Act.   o December  12,  2013:  Introduced  and  referred  to  House  Committee  on  Consumer  Affairs.       S.B.  1121:  Proposes  a  new  model  for  electric  default  service  beginning  June  1,  2015.    Electric  generation   suppliers  would  be  responsible  for  providing  net  metering  to  customer  generators  pursuant  to  the   Alternative  Energy  Portfolio  Standards  Act  of  2004.   o October  10,  2013:  Referred  to  Consumer  Protection  and  Professional  Licensure  Committee.       S.B.  1171:    Would  amend  alternative  energy  portfolio  standard  (AEPS),  which  has  two  tiers.  The  AEPS   calls  for  8%  of  retail  electricity  sold  in  Pennsylvania  to  come  from  Tier  1  resources  such  as  wind  and   Timeline of Key State Activities on Net Energy Metering 47   hydroelectric  projects  by  2021.  The  AEPS  also  has  a  solar  carve-­‐out  of  0.5%  by  2021.  Under  the  AEPS,   10%  must  come  from  Tier  2  resources  like  waste  coal  and  wood  pulping  by  2021.  S.B.  1171  would   increase  the  Tier  1  requirement  to  15%  by  2023  in  1.5%  per  year  increments  starting  in  2018,  and   increase  the  solar  carve-­‐out  to  1.5%  by  2023.  Similar  legislation,  H.B.  100,  was  introduced  in  the  House   earlier  this  year.     o November  15,  2013:  Introduced  and  referred  to  Environmental  Resources  and  Energy  Committee.   RHODE  ISLAND   • S.B.  2990:    Would  create  a  tariff-­‐based  renewable  energy  DG  financing  program,  or  “Distributed   Generation  Growth  Program.”  Under  the  program  utilities  would  file  each  year  for  at  least  give  years   tariffs  providing  for  multiyear  streams  of  performance-­‐based  incentives  for  eligible  projects.  The   incentives  would  be  designed  to  achieve  MW  targets  at  reasonable  cost  through  a  competitive  process.   o March  5,  2014:  Introduced  and  referred  to  Senate  Environment  and  Agriculture.       SOUTH  CAROLINA   Rates  and  Regulation   • • Ex  parte  PSC  briefing  on  economic  development  issues  related  to  solar,  wind,  energy  efficiency,  Docket   No.  ND-­‐2013-­‐19-­‐E   o December  17,  2013:  The  SC  Public  Service  Commission  (PSC)  held  a  briefing  to  hear  presentations  on   solar  issues  in  response  to  a  request  by  the  SC  Coastal  Conservation  League  and  Southern  Alliance   for  Clean  Energy  via  the  Southern  Environmental  Law  Center.  Electric  utilities  did  not  make   presentations.  No  action  was  taken.  The  transcript  and  other  related  documents  can  be  downloaded   from  his  PSC  webpage.         Generic  proceeding  on  implementation  of  net  metering  standards  per  Energy  Policy  Act  of  2005,   Docket  No.  2005-­‐385E   o July  2,  2013:  The  SC  Public  Service  Commission  (PSC)  issued  an  order  directing  that  a  workshop  be   held  as  part  of  a  review  of  the  net  metering  program  since  changes  were  last  implemented  in  2009.   o Sept.  12,  2013:  Public  workshop  on  net  metering.  Canceled  by  the  PSC  in  response  to  a  request  from   Electric  Cooperatives  of  South  Carolina,  which  said  the  workshop  is  premature  pending  completion   of  an  ongoing  legislative  study.  (See  item  below.)   o September  30,  2013:  Deadline  for  written  comments.     Legislation   • Public  Utility  Review  Committee  (PURC)  Energy  Advisory  Committee  (EAC):  The  committee  is   conducting  a  study  of  solar  issues,  including  the  impact  of  H.  3425,  which  would  allow  third-­‐party  solar   financing/power  purchase  agreements.  (Companion  S.  536)  The  bill  was  referred  to  the  Labor,   Commerce  and  Industry  Committee,  which  delayed  action  until  the  EAC  study  is  completed.  The  study   also  includes  rate  design  and  cost  shifting  issues.  The  EAC  is  co-­‐facilitated  by  Ashlie  Lancaster  of  the   State  Energy  Office  and  C.  Dukes  Scott,  Executive  Director  of  the  Office  of  Regulatory  Staff.  The  EAC  is  a   Timeline of Key State Activities on Net Energy Metering 48   non-­‐legislative  advisory  board  created  in  2010  by  PURC.  PURC  is  a  joint  standing  committee  of  the  SC   Legislature,  chaired  by  Senator  Thomas  Alexander  (R)  and  Representative  William  Sandifer  (R).  The   committee  also  consists  of  non-­‐legislative  public  members.     o October  29,  2013:  EAC  met  to  address  initial  working  draft  report  that  addresses  list  of  issues,  as   described  in  “EAC  Research  Questions.”  In  addition  to  the  impact  of  H.  3425,  the  questions  address   the  extent  to  which  the  basic  facilities  charge  reflects  actual  fixed  costs,  alternative  rate  schedules   that  may  better  accommodate  DG  technologies,  characteristics  of  various  forms  of  generation  in   comparison  to  DG,  third-­‐party  sales  of  DG,  and  other  issues.  Research  questions   o December  11,  2013:  The  EAC  held  a  meeting  to  discuss  the  Distributed  Energy  Resources  Initial  Draft   Report  and  accept  testimony.  Agenda       o December  18,  2013:  Written  comments  due.     o December  31,  2013:  EAC  report  to  PURC  due.   SOUTH  DAKOTA   Rates  and  Regulation     • Rulemaking  on  PURPA  avoided  cost,  SD  Public  Utilities  Commission  (PUC)  Docket  No.  RM13-­‐002     o December  3,  2013:  Comments  due.     o January  27,  2014:  The  PUC  approved  a  motion  to  proceed  with  a  rulemaking  regarding  creation  of  a   legal  enforceable  obligation.   o March  1,  2014:  Comments  due.  The  comments  may  include  draft  rule  language,  concepts,  or   positions.   o February  4,  2014:  The  SD  PUC  issued  a  press  release.       Legislation     • H.B.  1254:  Would  create  a  net  metering  requirement  for  electric  utilities  and  rural  electric  cooperatives.   Excess  generation  to  be  carried  forward  month  to  month  and  credited  at  70%  of  the  retail  rate.   Customer-­‐generators  could  not  be  charged  fees  or  rates  that  do  not  apply  to  non-­‐DG  customers.  Eligible   rated  capacity  of  the  renewable  generator  could  not  exceed  150  kW.   o February  4,  2014:  Introduced  and  referred  to  House  Agriculture  and  Natural  Resources  Committee.   o February  13,  2014:  Hearing  held.   o February  18,  2014:  Hearing  held;  measure  deferred  until  41st  day,  which  means  it  has  been  tabled   and  is  unlikely  to  receive  further  consideration.  Dakota  Rural  Action  testified  in  support.  The  South   Dakota  Rural  Electric  Association,  South  Dakota  Electric  Utility  Companies,  South  Dakota  Municipal   Electric  Association  and  Heartland  Consumers  Power  District  testified  in  opposition. TEXAS   • There  is  no  statewide  net  metering.  Solar  proponents  are  expected  to  continue  to  fight  for  legislation  to   institute  statewide  net  metering  and  expand  the  state  RES,  despite  defeats  in  the  2013  legislative   session.  Austin  Energy  has  a  value  of  solar  tariff.  CPS  Energy  (owned  by  San  Antonio)  in  spring  2013   Timeline of Key State Activities on Net Energy Metering 49   proposed  to  replace  its  net  metering  tariff  with  a  value  of  solar  tariff  modeled  after  Austin  Energy’s   VOST.  However,  CPS’  proposed  pricing  differed  significantly  from  Austin’s  VOST  and  the  muni  was  forced   to  withdraw  its  proposal  in  the  face  of  opposition  from  solar  installers  and  customers.   UTAH   Rates  and  Regulation     • PacifiCorp  general  rate  case,  Docket  No.  13-­‐035-­‐184   o January  3,  2014:  Filed  with  UT  Public  Service  Commission  (PSC).  Request  includes:  increase  in   residential  customer  charge  from  $5  to  $8;  increase  in  minimum  bill  applying  to  extremely  low-­‐use   customers  from  $7  to  $15;  imposition  of  net  metering  surcharge  of  $4.25/month  for  residential.   Testimony  cites  need  to  recover  more  fixed  distribution  and  customers  service  costs  through  fixed   charges  as  company  role  changes  (e.g.,  to  include  becoming  a  facilitator  of  energy  services  provided   by  other  entities,  as  DG  and  net  metered  customers  increase,  and  other  factors.   o January  16,  2014:  Scheduling  conference.   o January  22,  2014:  Order  issued  dividing  case  into  Phase  1  (revenue  requirement)  and  Phase  2  (cost   of  service)  and  setting  schedule.   o May  15,  2014:  Interventions  for  Phase  1  &  2.   o May  22,  2014:  Direct  testimony  (non-­‐company)  for  Phase  2.   o June  26,  2014:  Rebuttal  (all  parties)  for  Phase  2.   o July  17,  2014:  Surrebuttal  (all  parties)  for  Phase  2.   o July  28-­‐August  1:  Hearing  for  Phase  2.   o July  29,  2014:  Public  hearing  for  Phase  1  &  2.     Legislation     • October  16,  2013:  The  Public  Utilities  and  Technology  Interim  Committee  held  a  public  meeting  to   discuss  several  topics,  including  development  of  energy  sources,  power  purchase  contracts  and  the  role   of  net  metering  in  the  provision  of  electric  power.  After  hearing  presentations  from  the  state  energy   office,  PacifiCorp  and  others,  the  committee  concluded  that  solar  penetration  in  the  state  is  at  too  small   a  level  to  cause  significant  cost  shift  and  other  issues,  and  that  action  is  not  warranted  at  this  time.       • H.B.  284  (2013):  Modifies  a  definition  applicable  to  the  net  metering  of  electricity  so  that  an  electrical   corporation's  rate  schedule  may  define  a  billing  cycle  other  than  a  cycle  starting  on  April  1  of  one  year   and  ending  on  March  31  of  the  following  year.   o March  26,  2013:  Enacted.  Effective  date  of  implementation  is  May  14,  2013.     • S.B.  208:  Current  version  (March  4,  2014)  provides  for  the  PSC  to  determine  whether  costs  that  a  utility   or  non-­‐participating  customers  will  incur  from  a  net  metering  program  will  exceed  the  benefits  or  vice   versa,  and  determine  a  charge,  credit  or  ratemaking  structure  –  including  new  or  existing  tariffs  –  in  light   of  the  costs  and  benefits.  Would  require  that  at  the  end  of  an  annualized  billing  period  an  utility's   avoided  cost  value  of  remaining  unused  NEM  credits  be  granted  to  the  utility's  low-­‐income  assistance   programs  or  for  another  use  as  determined  by  PSC.  Requires  each  customer  participating  in  NEM  to   Timeline of Key State Activities on Net Energy Metering 50   provide  all  equipment  necessary  to  meet  applicable  utility  interconnection  requirements  at  the   customer's  expense.   o February  19  &  20,  2014:  Introduced  and  referred  respectively  to  Committee  on  Business  and  Labor.   o February  24,  2014:  Hearing  held.  Passed  unanimously  with  no  amendment.  Senate  floor   consideration  is  next. o March  4,  2014:  Substituted. o March  5,  2014:  Passed  Senate  unanimously;  referred  to  House  Public  Utilities  and  Technology   Committee.   o March  6,  2014:  Passed  committee  unanimously.   VERMONT   Rates  and  Regulation   • • • Washington  Electric  Cooperative  net  metering  tariff,  Docket  No.  8159   o October  25,  2013:  WEC,  which  had  met  its  4%  NEM  cap,  filed  with  the  PSB  to  raise  the  cap  to  allow   customers  with  up  to  5  kW  of  capacity  to  install  more  capacity.     o November  22,  2013:  The  VT  Department  of  Public  Service  (DPS)  recommended  suspension  of  the   tariff  and  an  investigation.   o December  2,  2013:  The  VT  Public  Service  Board  (PSB)  issued  an  order  suspending  the  tariff  and   opening  an  investigation.    The  PSB  said  the  proposed  tariff  differs  from  the  statutory  NEM  program,   which  raises  legal  questions.   o December  12,  2013:  Pre-­‐hearing  conference.     Vermont  Electric  Cooperative  interim  net  metering  tariff   o October  1,  2013:  Filed  with  VT  PSB.  Would  allow  VEC  members  to  continue  installing  net  metering   systems  above  statutory  4  percent  system  cap,  which  VEC  has  reached.  Noting  there  are  many  legal   opinions  regarding  what  can  happen  after  the  cap  is  reached,  VEC  said  it  would  not  object  if  the  PSB   opened  an  investigation.  Filed  documents:   http://www.vermontelectric.coop/content/Combined_Files_3.pdf     Proposed  amendment  to  net  metering  rule,  Docket  No.  Rule  5100   o July  19,  2013:  The  VT  Public  Service  Board  (PSB)  filed  with  the  Secretary  of  State  proposed  changes   to  the  existing  net  metering  rule  including  a  proposed  increase  in  eligible  system  capacity,  changes   to  billing  for  group  systems,  increases  in  the  utility  net  metered  capacity  limit,  and  establishment  of   a  registration  process  for  smaller  systems.  Comments  and  other  information  are  posted  at:   http://psb.vermont.gov/statutesrulesandguidelines/proposedrules/rule51002013     o September  5,  2013:  Public  hearing  scheduled.   o September  20,  2013:  Written  comments  due.   o November  18,  2013:  The  PSB  issued  text  of  its  final  proposed  rule  and  response  to  comments,   available  at  the  above  link.   o December  19,  2013:  The  PSB  adopted  the  rule  as  proposed.  The  rule  is  final  and  effective   1/27/2014.    In  Vermont,  notice  of  final  rulemakings  is  not  published  by  the  Secretary  of  State.   Timeline of Key State Activities on Net Energy Metering 51   Legislation   • • • H.B.  702:  Would  raise  aggregate  NEM  capacity  cap  from  4%  to  15%  and  make  other  changes  to  NEM   program,  which  must:  1)  advance  renewable  goals;  2)  reduce  greenhouse  gas  emissions;  3)  ensure  that   net  metering  does  not  shift  costs  included  in  each  retail  electricity  provider’s  revenue  requirement   between  net  metering  customers  and  other  customers;  and  4)  allow  the  expansion  of  net  metering  to   all  customers  who  want  to  participate.  Requires  the  VT  Public  Service  Board  to  create  rules  for  this   program  by  2017.  This  measure  was  the  result  of  meetings  between  lawmakers,  utilities  and   stakeholders  and  the  work  done  by  the  Committee  on  Natural  Resources  and  Energy.  Governor  Peter   Shumlin  (D)  has  also  stated  his  support  of  the  expansion  of  net  metering.  It  has  been  described  as  a   "three-­‐year  fix"  of  the  current  net  metering  program.  Democrats  control  both  chambers  of  the   Legislature,  as  well  as  the  Governor's  Office.   o January  24,  2014:  Introduced.   o January  29,  2014:  Amended  by  House.  This  measure  was  never  referred  to  a  committee.   o January  30,  2014:  Passed  House  on  voice  vote.   o January  31,  2014:  Referred  to  Senate  Finance  Committee.   o February  4,  2014:  Hearing  held.  Representatives  from  the  Department  of  Public  Service,  Green   Mountain  Power,  Burlington  Electric  Department,  Washington  Electric  Co-­‐op  and  Vermont  Electric   Cooperative  offered  testimony.  A  vote  was  not  taken.  The  committee  will  likely  hold  more  hearings.   o February  19,  2014:  Hearing  held.  The  Department  of  Public  Service,  Washington  Electric  Co-­‐op,   Renewable  Energy  Vermont,  Associated  Industries  of  Vermont,  and  Town  Manager  of  Johnson   offered  testimony.   o February  25,  2014:  Hearing  held.  The  Vermont  Legislature's  Office  of  Legislative  Council,  the  Public   Service  Board,  Efficiency  Vermont  and  the  Vermont  Fuel  Dealers  association,  and  Department  of   Public  Service  offered  testimony.   o February  28,  2014:  Hearing  held. The  committee  considered  redrafts  of  the  measure.   Representatives  from  the  Washington  Electric  Co-­‐op,  Department  of  Public  Service,  VT  Electric   Cooperative,  Green  Mountain  Power,  Agency  of  Natural  Resources,  Renewable  Energy  Vermont,  VT   Public  Interest  Research  Group,  Energize  VT,  Burlington  Electric  Department,  and  VT  Public  Power   Supply  Authority  offered  testimony.     Rural  electric  co-­‐ops  are  hitting  net  metering  caps  and  are  poised  to  work  with  legislators  in  2014  to   address  cost-­‐shifting  issues.  Note:  Rural  utility  peaks  generally  fall  in  the  evening.  Green  Mountain   Power,  whose  customers  are  about  one-­‐third  residential,  one  third  commercial  and  one-­‐third   industrial,  experiences  its  peak  earlier  in  the  day  and  therefore  is  positioned  differently  with  regard  to   solar.     o Renewable  Energy  Vermont  wrote  to  Gov.  Peter  Shumlin  asking  him  to  work  to  preserve  and   strengthen  net  metering  in  the  state.  A  copy  of  the  letter  is  found  in  this  news  article:   http://vtdigger.org/2013/11/25/vermonts-­‐renewable-­‐businesses-­‐call-­‐governor-­‐support-­‐strong-­‐net-­‐ metering-­‐program/       January  8-­‐10,  2014:  The  House  Committee  on  Natural  Resources  and  Energy  held  meetings  on  net   metering.  Among  those  scheduled  to  offer  testimony  were  Commissioner  Chris  Recchia  of  the  Public   Service  Department,  Deputy  Commissioner  Darren  Springer  of  the  Public  Service  Department  (PSD),   Timeline of Key State Activities on Net Energy Metering 52   • Public  Policy  Manager  Dan  Barlow  of  Vermont  Businesses  for  Social  Responsibility,  Director  Karen  Horn   of  Vermont  League  of  Cities  and  Towns,  Outreach  Director  and  Energy  Program  Co-­‐Director  Johanna   Miller  of  Vermont  Natural  Resources  Council,  Clean  Energy  Advocate  Ben  Walsh  of  Vermont  Public   Interest  Research  Group,  and  Director  of  Government  Affairs  Robert  Dostis  of  Green  Mountain  Power.     o Springer  of  DPS  presented  a  proposal  on  behalf  of  the  Shumlin  Administration  to  increase  the  4%   cap  to  15%  during  the  next  three  years  as  an  interim  step  while  a  more  permanent  solution  is   developed  before  solar  tax  credits  expire  at  the  end  of  2016.   H.B.  366:  Would  increase  the  net  metering  system  capacity  for  industrial  facilities  and  standardize  the   definition  of  “plant  capacity”  as  it  applies  to  solar  electric  generation.   o February  26,  2013:  Referred  to  Committee  on  Natural  Resources  and  Energy.  The  bill  will  carry  over   to  the  next  session.     • • H.B.  604:  States  that  net  metering  credits  do  not  apply  to  either  the  fixed  customer  charge  or  the  energy   efficiency  charge  on  a  customer's  bill.   o January  15,  2014:  Referred  to  the  House  Committee  on  Natural  Resources  and  Energy.     S.B.  105:  Would  require  regional  planning  commissions  to  plan  for  siting  of  renewable  electric  energy   plants.   o February  14,  2013:  Referred  to  Committee  on  Natural  Resources  and  Energy.  The  bill  will  carry  over   to  the  next  session.     • S.B.  196:    Would  eliminate  the  existing  NEM  4%  system  capacity  limit  and,  so  that  NEM  customers   contribute  to  the  cost  of  maintaining  and  operating  the  grid,  would  require  these  customers  “to  pay  the   monthly  customer  charge  billed  by  the  electric  company.”   o December  17,  2013:  Two  similar  measures  in  2013  saw  no  significant  action.  The  sponsor  is  a   member  of  the  majority  party.  Democrats  control  both  chambers  of  the  Legislature  and  the   governor's  office. S.B.  204:  Would  create  the  "10  Percent  for  Vermont  Program,"  provide  financing  to  create  renewable   energy,  and  set  a  goal  of  90%  of  energy  to  be  supplied  through  renewable  sources  by  2050.   o December  17  &  January  7,  2013:  Filed  and  referred  to  Senate  Committee  on  Finance.   o February  5,  2014:  Meeting  held.  No  action  taken.     o February  25,  2014:  Hearing  held.     Other  Initiatives     • Total  Energy  Study,  VT  Public  Service  Department  (PSD)  (executive  branch  agency  that  represents  the   public  interest  before  the  PSB  and  other  entities).  PSD  webpage  As  part  of  this  effort,  the  PSD  will   produce  a  proposal  for  consideration  during  the  2014  legislative  session.       o June  21,  2013:  PSD  issued  “Request  for  public  comment  and  stakeholder  engagement  on  ‘Total   Energy  Study’  Framing  Report.”  The  PSD  held  stakeholder  sessions  through  summer  2013.  The   comment  period  is  now  closed.   o November  14,  2013:  Public  meeting  and  webinar  presentation.     • Timeline of Key State Activities on Net Energy Metering 53   VIRGINIA     Rates  and  Regulation     • Implementation  of  H.B.  1695  (below),  agricultural  NEM,  Docket  No.  PUE-­‐2014-­‐00003.     o January  27,  2014:  The  VA  SCC  issued  an  order  to  open  a  docket  to  establish  an  NEM  program  for   eligible  agricultural  customers.     o February  24,  2014:  Proposed  regulation  published  in  State  Register.   o March  27,  2014:  Comments  due.   o July  1,  2014:  Statutory  deadline  for  program  implementation.     • Implementation  of  S.B.  1023  (below),  Docket  No.  PUE-­‐2013-­‐00045.  CLOSED   o November  14,  2013:  The  VA  State  Corporation  Commission  (SCC)  issued  a  final  order  establishing   guidelines  on  aspects  of  a  third-­‐party  purchased  power  agreement  pilot  program  for  solar  and  wind   power  in  Dominion  Virginia  Power’s  service  territory.    This  docket  is  now  closed.    The  SCC  will  review   the  pilot  program  in  2015  and  every  two  years  after.     Legislation     • H.B.  879:  Authorizes  municipal  renewable  NEM  projects  for  which  load  from  governmental  buildings,   facilities,  and  other  governmental  operations,  including  load  served  by  multiple  meters,  may  be   aggregated.  Eligible  resources  are  solar,  wind,  and  aerobic  or  anaerobic  digester  gas  and  landfill  gas.   Aggregate  capacity  would  be  capped  at  5  MW  unless  a  utility  elects  a  higher  capacity.  The  measure  also   would  require  the  VA  SCC  to  establish,  by  July  1,  2015,  a  multifamily  NEM  program  for  customers   operating  renewable  generation  in  a  condominium,  apartment  complex,  neighborhood  or  homeowners   association.   o January  7,  2014:  Introduced.  This  bill  is  sponsored  by  a  Republican  (controlling  House/Senate  party).   Democrat-­‐sponsored  measures  with  similar  aims  also  were  introduced:  S.B.  350  (below)  and  H.B.   906.   o January  30,  2014:  Tabled  on  voice  vote  by  special  energy  subcommittee  of  House  Commerce  and   Labor.  The  similar  H.B.906  also  was  tabled  on  voice  vote.     • H.B.  818:  Would  establish  VA  Commission  on  Energy  and  Environment  in  legislative  branch.  Provides   that  the  commission  must  review  and  make  recommendations  to  help  implement  the  VA  Energy  Plan.   Duties  include  evaluating  renewable  energy  portfolios,  pursuing  DG  plans,  and  evaluating  grid  upgrades.   Also  would  create  related  fund  to  help  commission  implement  requirements.   o January  7,  2014:  Prefiled.     • H.B.  1061:  Would  set  DG  minimum  goals  as  part  of  state  RPS  goals.   o January  8,  2014:  Prefiled.     • H.B.  1158:  Would  allow  a  subscriber  organization  to  own  a  community  solar  garden  to  receive  net   metering  credits  from  a  utility.  Requires  the  utility  to  purchase  unsubscribed  renewable  energy  at  the   same  rate  as  the  utility's  average  hourly  incremental  cost  of  electricity  supply  from  the  previous  year.   Timeline of Key State Activities on Net Energy Metering 54   o o January  16,  2014:  Assigned  to  House  Commerce  and  Labor  special  subcommittee  on  energy.   January  30,  2014:  Tabled  by  subcommittee  on  voice  vote.   • H.B.  1695  (2013):  Requires  the  VA  State  Corporation  Commission  (SCC)  to  expand  the  existing  net   metering  program  to  allow  eligible  agricultural  customer-­‐generators  the  opportunity  to  use  multiple   meters  for  net  metering.   o March  13,  2013:  Enacted.   • H.J.  76:  Would  create  mandatory  RPS.   o January  8,  2014:  Introduced  and  referred  to  House  Committee  on  Rules.   • S.B.  350:  Would  authorize  municipal  renewable  NEM  projects,  allow  aggregation  of  load  of   governmental  buildings,  and  require  the  SCC  to  establish  by  July  1,  2015,  a  multifamily  NEM  program.     o January  7,  2014:  Introduced;  referred  to  Senate  Commerce  and  Labor  Committee.   o February  3,  2014:  Hearing  held.  Continued  to  2015  on  13-­‐3  vote.  No  further  consideration  is   expected  in  2014.     S.B.  1023  (2013):  Creates  a  third-­‐party  purchased  power  agreement  pilot  program  for  solar  and  wind   power  in  Dominion  Virginia  Power’s  service  territory.  The  program  is  limited  to  50  MW  within  the  state’s   overall  net  metering  cap  of  1%  of  utility  peak  load  (approximately  165  MW  for  Dominion).  Projects  are   limited  to  non-­‐residential  customers  and  to  1  MW  in  size  (and  for-­‐profit  entities  are  also  subject  to  a  50   kW  minimum,  thereby  ensuring  they  pay  a  standby  charge  under  Dominion’s  current  rate  structure).   o March  14,  2013:  Enacted.         S.R.  47:  Requests  the  departments  of  Environmental  Quality  and  Mines,  Minerals  and  Energy  to  jointly   convene  a  stakeholder  group  to  study  the  costs  and  benefits  of  solar  DG  and  NEM.  Requires  the   stakeholder  group  to  study  relevant  data,  make  recommendations  on  methods  for  evaluating  such  data   and  consider  other  issues  as  appropriate.   o March  3,  2014:  Introduced  and  referred  to  Senate  Rules  Committee.   o March  4,  2014:  Passed  Rules  9-­‐3.   o March  6,  2014:  Referred  back  to  Rules.  Passed  by  indefinitely,  which  means  it  is  unlikely  to  receive   further  consideration  in  this  session.   • • WASHINGTON   Rates  and  Regulation     • Investigation  of  costs/benefits  of  DG  and  the  effect  of  DG  on  utility  provision  of  electric  service,   Docket  No.  UE-­‐131883   o October  15,  2013:  WA  Utilities  and  Transportation  (UTC)  issued  a  notice  that  it  is  seeking  to   understand  net  metering/DG  issues  as  they  relate  to  utilities  in  the  state,  including  the  effect  of  net   metering  on  the  relationship  between  revenues  from  rate  schedules  and  revenue  derived  from   individual  customers  within  a  rate  schedule.  The  workshop  also  will  include  a  discussion  of  DG  value   studies  from  Washington  and  other  states;  utility  analyses  of  the  technical  benefits  of  DG  on  feeder   Timeline of Key State Activities on Net Energy Metering 55   lines  and  public  disclosure  of  this  information;  whether  utilities  have  strategies  for  participating  in   the  DG  market  on  a  regulated  or  non-­‐regulated  basis;  and  the  potential  legal  or  regulatory   impediments  to  these  strategies.   o November  6,  2013:  Written  comments  due.   o November  13,  2013:  Public  workshop.  Video  of  the  workshop  is  available.   o December  19,  2013:  The  UTC  published  a  notice  of  opportunity  to  file  comments.  The  comments   should  address  which  issues  the  UTC  should  consider  in  the  DG  investigation,  proposals  for  how  to   address  these  issues,  and  what  process  would  best  facilitate  the  investigation.       o January  31,  2014:  Comments  due. • Generic  rulemaking  to  consider  changes  to  interconnection  rules,  Docket  No.  UE-­‐112133   o July  19,  2013:  Washington  Utilities  and  Transportation  Commission  (WA  UTC)  issued  a  final  order   promulgating  interconnection  rule  changes  that  allow  third-­‐party  net  metering.     Legislation     • H.B.  1106:  Would  exclude  a  third-­‐party  owner  of  a  customer-­‐sited  renewable  energy  facility  from  the   definition  of  electrical  company.  Increases  the  cumulative  generating  capacity  available  to  net  metering   systems  from  0.25%  of  peak  demand  in  1996  to  0.5%  of  peak  demand  in  1996.  Also  changes  meter   aggregation  for  customers,  limiting  customers  to  aggregating  no  more  than  199  kW  of  electricity  per   billing  period.  (Companion  bill  S.B.  5707)   o March  13,  2013:  Sent  to  Rules  Committee  for  second  reading.  Will  carry  over  to  the  next  session,   which  begins  January  13,  2014.       • H.B.  1289:  Allows  utilities  to  count  toward  RES  requirements  energy  dispatched  from  a  storage  facility  at   2.5  times  its  output,  if  certain  conditions  are  met.     o June  30,  2013:  Carried  over  upon  adjournment.       • H.B.  2176:  Provides  mechanisms  for  low-­‐cost  financing  of  energy  systems  on  the  distribution  side  of  the   electricity  grid.  Provides  utility  companies  or  third-­‐party  vendors  with  the  ability  to  offer  low-­‐cost  loans   or  lease  programs  to  customers.  States  the  loans  and  leases  will  be  used  by  customers  for  renewable   energy  systems.  Allows  the  electric  utility  priority  when  offering  loans  or  leases.  Allows  for  the  customer   to  purchase  the  renewable  energy  system  at  the  end  of  the  leasing  period.   o January  8,  2014:  Prefiled  for  introduction.   o January  14,  2014:  Public  hearing  –  House  Technology,  Energy  and  Economic  Development   Committee.  The  sponsor  is  the  Chairman  of  the  committee  of  reference.  The  sponsor,  Rep.  Jeff   Morris  (D),  chairs  the  committee  and  has  a  track  record  for  legislation  that  has  encouraged   renewable  energy  resources.   o January  31,  2014:  Executive  session.  A  substitute  measure  was  adopted  and  passed  by  the   committee  that  changed  some  of  the  types  of  energy  that  will  qualify  under  renewable  energy,   minor  adjustments  to  net  metering  requirements,  and  erased  the  provision  that  would  have  allowed   Renewable  Energy  Investment  Cost  Recovery  Program  to  extend  past  2021  and  gave  the   Department  of  Ecology  the  responsibility  of  measuring  the  environmental  impact  of  leased  energy   systems  and  energy  storage  systems.   Timeline of Key State Activities on Net Energy Metering 56   • •   H.B.  2183:  States  the  Joint  Committee  on  Energy  Supply  and  Energy  Conservation  shall  make   recommendations  to  the  energy  committees  of  the  legislature  that  would  establish  new  renewable   energy  and  energy  efficiency  goals  for  utilities.  Recommendations  must:  encourage  renewable  energy   resources,  promote  the  greatest  efficiency  in  using  existing  resources,  increase  efficiency  of  existing   technology,  reduce  pollution  from  energy,  and  energy  consumption.     o January  14,  2014:  Hearing  held  by  House  Committee  on  Technology  and  Economic  Development.   Climate  Solutions,  New  Energy  Coalition,  WA  Utilities  and  Transportation  Commission,  and  WA   Environmental  Council  testified  in  support.  The  only  group  to  oppose  the  measure  was  the   Washington  Rural  Electric  Cooperative  Association.   o January  24,  2014:  Work  sessions  held;  passed  with  favorable  recommendation.   o February  12,  2014:  Passed  House  82-­‐16.   o February  19,  2014:  Hearing  held  by  Senate  Committee  on  Energy,  Environment  and   Telecommunications.  Puget  Sound  Energy  and  Northwest  Energy  Coalition  testified  in  support.   There  was  no  testimony  against  this  measure.  PacifiCorp,  Washington  State  University  Energy   Program  and  Washington  Public  Utilities  District  Association  testified  with  suggestions.   S.B.  5807:  Encourages  utilities  to  invest  in  and  own  distributed  solar  generation  facilities.     o June  30,  2013:  Carried  over  upon  adjournment.   WEST  VIRGINIA   Legislation     • S.B.  471:  Would  amend  the  Alternative  and  Renewable  Energy  Portfolio  Act  to  establishes  a  solar   renewable  energy  credit  (SREC)  system,  create  a  distributed  solar  requirement,  and  require  that  all   SRECs  be  awarded  only  for  generation  facilities  in  WV.   o February  3,  2014:  Introduced  and  referred  to  Senate  Energy,  Industry  and  Mining.     • H.B.  2176:  Would  require  electric  utilities  to  credit  any  excess  customer-­‐owned  renewable  generation  to   the  customer-­‐generator's  billing  cycle  for  the  next  month.  At  the  end  of  each  calendar  year,  the  electric   utility  would  pay  the  customer-­‐generator  for  any  unused  energy  credits.   o March  29,  2013:  Public  hearing  held.  Will  carry  over  to  next  session. WISCONSIN   Rates  and  Regulation   •   Quadrennial  Planning  Process  II  for  Focus  on  Energy,  Docket  No.  5-­‐FE-­‐100.  Focus  on  Energy  is  a   statutory  statewide  collection  of  energy  efficiency  and  renewable  resource  programs  that  has  been  in   place  since  2001  and  is  funded  by  investor-­‐owned,  municipal  and  cooperative  utilities.    The  WI  Public   Service  Commission  (PSC)  decisions  in  the  first  planning  process  covered  2011-­‐14.  The  second  process   will  cover  2015-­‐18.   o July  3,  2013:  Opened  statutory  investigation.   Timeline of Key State Activities on Net Energy Metering 57   o o • • January  9,  2014:  Order  setting  scope.  The  PSC  will  consider  issues  in  five  categories:  goals  and   priorities,  cost-­‐effectiveness  of  programs,  renewable  energy,  energy-­‐water  nexus,  and  other  issues.   Cost-­‐effectiveness  will  include  the  issue  of  avoided  costs  and  will  encompass  DG.   January  30,  2014:  The  PSC  issued  a  request  for  comments  on  five  issues:  (1)  Focus  on  Energy’s  role   in  cost-­‐effectively  meeting  federal  carbon  standards;  (2)  relative  emphasis  of  energy  and  demand   savings;  (3)  overall  energy  goal  in  lieu  of  kilowatt-­‐hour  (kWh)  and  therm  goals;  (4)  rate  impact   mitigation  strategies;  and  (5)  renewable  energy  issues.     March  14,  2014:  Comments  due.  (Changed  from  previous  February  21  deadline.)   Winter/Spring  2014:  Staff  to  prepare  memorandum  for  comment.   July  2014:  PSC  decision(s).   Summer/Fall  2014:  Program  administration  plans/designs  programs.   January  2015:  New  “Focus  on  Energy”  program  begins.   o o o o o   Generic  rulemaking  on  distributed  resources  interconnection  rules,  Docket  No.  05-­‐GF-­‐233   o May  17,  2013:  The  WI  PSC  issued  a  notice  of  investigation  to  review  a  petition  filed  February  22,   2013,  by  RENEW  Wisconsin  to  amend  existing  interconnection  rules,  including  establishment  of  a   fast  track  process.     o June  17,  2013:  Comments  due.  WI  PSC  proceeded  without  a  hearing.   o October  10,  2013:  The  PSC  on  a  2-­‐1  vote  declined  to  open  a  rulemaking  to  consider  amendments  to   the  interconnection  rules.  Utilities  had  commented  that  compensation  and  cost  recovery  are  more   important  DG  issues.  While  the  focus  was  on  interconnect  issues,  the  two  commissioners  who  voted   no  commented  that  the  bigger  issues  of  rate  design  and  recovery  of  costs  in  fairness  to  all   ratepayers  need  to  be  addressed  first.   o November  13,  2013:  Final  order  issued.     Wisconsin  Public  Service,  Docket  No.  6690-­‐UR-­‐122   o March  29,  2013:  WPS  filed  a  general  rate  case  with  the  PSC  proposing  to:  1)  raise  certain  customer   charges,  2)  reduce  the  size  limit  of  net-­‐metered  customer  generators  from  100  kW  to  20  kW,  not  to   exceed  the  customer’s  expected  load,  3)  grandfather  customers  receiving  the  full  retail  rate  for   generation  above  monthly  usage  through  December  31,  2021,  and  4)  limit  net  metering  to   customers  on  energy-­‐only  rate  schedules.  Note:  The  PSC  in  December  2012  authorized  increases  in   customer  charges  for  two  other  Wisconsin  utilities,  which  essentially  set  the  stage  for  the  request   made  by  WPS.  (See  items  below.)   o November  6,  2013:  The  PSC  voted  on  the  issues.  Among  the  determinations:   ! “It  is  appropriate  to  increase  the  monthly  customer  charges  for  the  small  energy-­‐only  rate   classes  to  $10.40  per  month  and  $12.50  per  month  for  residential  and  small  commercial   customers,  respectively,  adjusted  for  the  final  revenue  requirement.    Commissioner  Callisto   dissented  and  would  have  authorized  a  lower  monthly  customer  charge  increase.  … ! It  is  reasonable  to  reduce  the  capacity  limit  for  WPSC’s  Pg-­‐4  Net  Energy  Billing  service  from   100  kilowatts  (kW)  to  20  kW.  Commissioner  Callisto  dissented  and  would  have  retained  the   100  kW  capacity  limit.  …   ! It  is  not  necessary  at  this  time  to  open  an  investigation  into  the  costs  and  system  benefits   associated  with  customer-­‐owned  generation.  These  issues  can  be  investigated  as  part  of   utility-­‐specific  rate  cases  next  year.  Commissioner  Callisto  dissented  and  would  have  opened   Timeline of Key State Activities on Net Energy Metering 58   • •   a  generic  docket  to  investigate,  on  a  utility-­‐wide  basis,  the  costs  and  system  benefits   associated  with  customer-­‐owned  generation.  “   ! The  commission  also  granted  a  renewable  advocate  request  to  change  monthly  netting  to   annual  netting  for  net  metered  customers.     o November  14,  2013:  The  PSC  issued  an  order  to  reopen  the  record  and  request  additional   comments.     o November  21,  2013:  Comments  due.   o December  15,  2013:  Final  decision  expected.     Madison  Gas  and  Electric,  Docket  No.  3270-­‐UR-­‐118   o December  14,  2012:  The  PSC  issued  a  final  decision  approving  increases  in  fixed  charges,  including  a   20%  increase  in  the  residential  customer  charge.  In  discussing  drivers  for  MGE’s  request  for  a  higher   customer  charge,  MGE  Assistant  VP-­‐Energy  Planning  Greg  Bollom  testified  on  April  2,  2012:  “[O]n   the  electric  side  of  our  business  growing  customer  interest  in  distributed  generation  has  increased   the  need  for  MGE  to  get  its  rates  and  costs  in  better  alignment  to  prevent  costs  from  being   inappropriately  shifted  amongst  different  customers.”     We  Energies,  Docket  No.  5-­‐UR-­‐106   o December  21,  2012:  The  PSC  issued  a  final  decision  approving  the  rate  design  proposed  by  the   company,  including  a  20%  increase  in  the  residential  customer  charge  and  increases  in  demand   charges  and  lesser  increases  in  energy  charges  for  the  commercial  and  industrial  rate  classes.   COMMISSIONERS Bob Stump BOB STUMP - Chairman Chairman GARY PIERCE BRENDA BURNS Direct Line: (602) 542-3935 BOB BURNS Fax: (602) 542-0752 SUSAN AR IZONA PO RATION COM 15510 E-ma"= March 12, 2014 Mr. Lyndon Rive Chief Executive Of?cer SolarCity Corporation c/o Court Rich Rose Law Group PC 6613 N. Scottsdale Rd., Ste. 200 Scottsdale, AZ 85250 RE: In the Matter of the Commission ?3 Investigation of Value and Cost of Distributed Generation, Docket No. Dear Mr. Rive: Recently, it has come to my attention that Tucson Electric Power Company has received a number of customer complaints related to certain provisions of its interconnection agreement, which all net metering customers must sign. interconnection agreement includes a speci?c disclaimer, similar to the one set forth in Decision No. 74202, which clearly informs customers that rates and tariffs are subject to change. Some customers, however, have complained that the disclaimer is inconsistent with information that they have been given by their solar providers; speci?cally, they say that solar providers have told them that the rates, rules, and regulations applicable to net metering are ?grandfathered,? thereby implying that the rates associated with net metering are not subject to change. Customers are then surprised, disappointed, and angry to learn from TEP that this may not be the case. I am concerned that SolarCity and other solar providers may have made misstatements to customers, leading them to believe that the rates, terms, and conditions of their net metering service will be ?grandfathered? once they have initiated net metering service. As you know, the Commission hasjurisdiction over rates as well as its terms and conditions of service, including net metering. In next rate case, or in some other subsequent TEP proceeding concerning net metering or rate design, ?grandfathering? is one possible outcome; however, it is presumptuous to tell customers that such an outcome is certain. Customers rely upon solar providers? representations to evaluate whether to sign up for the services offered. I am concerned that you?as well as other solar providers?may be communicating with customers in a way that is both confusing and misleading and which deprives them of the balanced information that they need in order to make informed decisions. 1200 WEST WASHINGTON. PHOENIX. ARIZONA 35007-2996 9' 400 WEST CONGRESS 5THEET.TUCSON. AFIIZONA 85701-1347 March 12, 2014 Page Two In 2010, the Commission issued a decision which concluded that SolarCity is not a public service corporation. Your Form 10-Q, however, which was ?led with the Securities and Exchange Commission in 2013, includes statements that lead me to question that result. For example, the following assertion appears to indicate that SolarCity sells energy to end users: We offer our customers the option to either purchase and own solar energy systems or to purchase the energy that solar energy systems produce through various ?nanced arrangements. These financed arrangements include long-term contracts that we structure as leases and power purchase agreements. In both ?nanced structures, we install solar energy system at our customer?s premises and charge the customer a fee for the power that system produces. SolarCity Corporation Form 10-Q at 35 (Nov. 12, 2013) (emphasis added). Furthermore, I would note that your footprint in our state is substantial, especially in the Tucson area. I am concerned that you are providing a service that is ?clothed with the public interest,? but that you may not be measuring up to the very high standards required of such entities. In light of these recent complaints, I will be placing this matter on a Commission open meeting agenda in the near future in order to discuss these important concerns with my fellow commissioners. In the interim, I would appreciate your written and docketed response to the following questions: 1) What kinds of representations/statements regarding utility rates, charges, and conditions of service do your sales representatives or other personnel make to potential customers who are thinking about subscribing to your service? 2) What kinds of training do your sales representatives or other personnel receive in order to ensure that they are providing potential customers with accurate and balanced information regarding utility rates, charges, and conditions of service? 3) What efforts does your company take to monitor your sales representatives and other personnel to ensure that they provide potential customers with accurate and balanced information regarding utility rates, charges, and conditions of service? I am sure you will agree that providing accurate and balanced information to your customers is of vital importance. Your responses to these questions will assist me as I consider these important issues. I have not yet made up my mind on any of these issues, and I look forward to reviewing your responses, which I would appreciate receiving by March 31, 2014. With best gards, Bob Stump Chairman 701 Avenue. NW. Washington. Emit-26% 202.505.5e15 Mobile: 202.258.2i?9 emmer@eei.0rg Power by Assecrerreev - Edward H. Comer Edison Electric Vice President General [sunset 81 Corporate Secretanr Institute Friday, February 14, 2014 Docket Control, Arizona Corporation Commission 1200 West Washington Street Phoenix, AZ 85007 Re: Comments on Value and Cost of Distributed Generation (Including Net Metering) 000001-14-0023 Whom it may concern, Attached please find an original plus 13 copies of the Edison Electric Institute (EEI) filing comments in response to Value and Cost of Distributed Generation (Including Net Metering) Docket Number appreciates the Opportunity to provide comments. Questions may be directed to Edward Comer: ecomer@eei.org and (202) 508-5002. Sincerely, 4? ?fe/WM/ Edward H. Comer Vice President, General Counsel 8: Corporate Secretary Edison Electric Institute 701 Avenue, NW Washington, Dc 20004 BEFORE THE ARIZONA CORPORATION COMMISSION Value and Cost of Distributed Generation; (Including Net Metering) ) ) ) Docket No. E-00000J-14-0023 COMMENTS OF THE EDISON ELECTRIC INSTITUTE In response to the January 27, 2014, Arizona Corporation Commission (“ACC” or “Commission”) notice (“Notice”) issued in the above-referenced docket, the Edison Electric Institute (“EEI”), on behalf of its members, respectfully submits its comments to assist the Commission in its inquiry into the relevance and significance of various categories for assigning monetary values to distributed generation (“DG”) benefits and costs. DG systems will play an increasing role in our nation’s generation mix. The electric industry supports rate policies that appropriately recognize the value that the grid provides to DG customers and DG customers provide to the distribution system. It is very important that state commissions, such as the ACC, consider updates to current rate policies for DG, particularly as the levels of DG penetration become more significant, because current policies that create crosssubsidies among customers are neither equitable nor sustainable. The Commission should keep prominently in mind that, even as the nation continues to see its generation resource portfolio evolve, the traditional rationale for cost of service regulation, namely the protection of customers, has not abated. Accordingly, EEI’s comments identify for the Commission’s consideration some basic principles applicable to developing rates for utility services. EEI’s comments also discuss the merits of including certain categories of DG costs and benefits in any approach for calculating the appropriate compensation for DG and the services provided by the electric grid that are consistent with Commission policy and precedents and are fair to all customers. EEI is the association of all U.S. investor-owned electric companies. Its members provide electricity for 220 million Americans, directly employ more than 500,000 workers, and operate in all 50 states and the District of Columbia. With more than $85 billion in annual capital expenditures, the electric power industry is responsible for millions of additional jobs. Reliable, affordable, and sustainable electricity powers the economy and enhances the lives of all Americans. EEI has 70 international electric companies as Affiliate Members, and 250 industry suppliers and related organizations as Associate Members. Organized in 1933, EEI provides public policy leadership, strategic business intelligence, and essential conferences and forums. EEI submits these comments because the relative costs and benefits of DG are an issue facing the investor-owned utility industry as a whole. EEI and its member companies therefore have a substantial interest in this proceeding. COMMENTS EEI is pleased to submit comments responding to the Commission’s questions as to what factors should be considered in developing a process and methodology for assigning prices to DG benefits and costs. EEI commends the Commission for establishing this inquiry because clarity as to what costs and benefits belong in setting rates for electricity and grid services will provide all customers with greater transparency in pricing and is an essential tool in preventing cost shifting and inequities for electricity customers. It is very important that this process and methodology work in a sustainable way to enable new distributed generation customers to participate fairly in electricity markets. If such a process and methodology sets artificially high 2 prices for DG power, then it will result in market distortions that adversely impact both utilities and their customers, in particular the customers least likely to install a DG system. There is an important role for all kinds of electric generation, including distributed generation such as rooftop solar generation, but it is important to integrate these sources in a manner that achieves the lowest cost, reliable and environmentally sustainable approach for all customers. EEI believes that rates paid to DG customers must be developed in a way that is consistent with the methodologies used to develop rates for utility services and as compensation for other comparable resources in order to avoid double-counting and long-term market distortions. Moreover, any incentives for DG should be transparent and periodically reexamined, especially in light of existing market maturity. While incentives such as limited net metering were instituted to jump-start nascent markets for DG systems, markets have substantially evolved and as a result these subsidies have served their intended purpose and should not be extended or expanded. I. Compensation for Distributed Generation Should be Cost-Based Over many years of utility regulation, regulators have adopted, as a fundamental rule, the proposition that regulation should be based on the costs of service, not the value of service. They developed this approach because costs are readily observable whereas “value” of service propositions are inherently uncertain and speculative and tend to lead to much greater uncertainty. Therefore, rates for utility service like electricity, transmission and distribution services are set so that customers pay for the costs of the services they receive from their utility and the electric power grid. Furthermore, regulation attempts to allocate costs so that customers pay for the costs incurred to serve them, not for costs incurred to serve other customers. These 3 principles should apply to the services electric utilities provide to all customers, including customers with DG systems. Proper cost identification and allocation are essential to fair ratemaking and the avoidance of hidden cross-subsidies. Deviations from this policy lead to distorted incentives and diseconomies that are not sustainable over time. The rationale for, and benefits of, cost of service regulation have not disappeared: Consumer protection. These cost of service principles do not allow for rate making based on subjective valuations. Electric rates have historically been based on the known and measurable cost of providing electric service, as approved by state regulators, and EEI believes this wellestablished approach to setting rates must apply to any methodology for determining adequate compensation for DG. Many DG advocates argue that the benefits DG installations provide to utility systems and to society are very large and that such benefits should be used to offset a substantial portion of the costs utilities incur to serve DG customers. Essentially, they argue that the benefits of DG should be priced on the basis of its value, while the benefits of electricity service, as well as other generation resources, should be priced based on their cost. This approach is fundamentally unfair, unduly discriminatory and inconsistent with the traditional approach to regulation. Rateregulated utilities are able to recover only those actual costs they incur, as reflected in their books of account, and only that portion that was prudently incurred. These costs make their way into required revenues and are recovered in rates approved by state regulatory commissions. This process provides certainty and transparency, and is the basis for consumer protection. Furthermore, this is the construct that investors rely on when providing capital to investor-owned 4 electric utilities and that underlies the U.S. Supreme Court’s standards for just and reasonable rates. II. Any DG Compensation Methodology Should Be Non-Discriminatory and Resulting Rates Based on Known and Measurable Costs It is important to establish that the basic payment system for power produced by both distributed and utility generators is consistent and not unduly discriminatory. This is particularly critical in light of the Commission’s finding that the net-metering tariff does cause a cost-shift between DG and non-DG customers.1 To do this, amounts of electricity purchased by and sold to DG customers should be separately quantified and separately valued. Simply subtracting the amount of electricity that a DG customer generates from the amount of electricity the customer purchases from the local utility (as is typically done under current net metering) does not occur simultaneously and therefore does not accurately reflect the cost of electricity and grid services that utilities provide to a DG customer. Thus, this shifts substantial costs to customers that do not self-generate. Correspondingly, customers with DG systems should pay for all of the services that electric utilities provide to them, including distribution, transmission, and standby generation. Customers who do not net meter should not subsidize those who do. DG customers should be required to pay for grid services because these customers are connected to and still use the grid, but in more complex ways than other customers. This is confirmed by the fact that as DG installations increase then utilities must invest in new control systems, modify operating 1 EEI also appreciates that the ACC has indicated that evaluation of this cost-shifting will be an ongoing process and that this cost-shifting will be evaluated in the future. 5 procedures, and train operating personnel to safely and reliably accommodate DG systems on the grid. DG customers should be compensated for their electricity sales at rates commensurate with what it costs electric utilities to serve their customers by producing electricity or purchasing it in the wholesale market. DG customers should receive a credit for reducing electric utility costs only if there are identifiable, verifiable costs that utilities save as a result of DG systems being added at specific locations. Including intangible or difficult to measure components in the process will ultimately lead to lack of confidence in the end product. Moreover, less-thancredible inputs will lead to significant disagreement among stakeholders, resulting in a costly and less-than-optimal process. Furthermore, basing rates on the “value of solar” will have the unintended consequence of constituting a regulatory barrier to other renewable technologies or types of generation resources. The Commission should instead require a methodology that includes only costs that are measurable and verifiable. This will serve to protect non-DG customers, the vast majority of all customers, from paying for benefits that are speculative, sensitive to unverifiable assumptions, lack standard calculation approaches, or otherwise may not actually materialize as expected. The methodology should rely on standard approaches to quantifying the cost of avoided energy, capacity and system losses, applying the same degree of rigor that is used in evaluating demand side management (“DSM”) and similar resources, especially if utilities are required to purchase the output of DG systems. To this end, the evaluation of net metering and other billing policies for DG should include an assessment of the services that DG customers still take from the utility and the appropriate and fair payment for those services. 6 A. Transmission and Generation Capacity Costs Are Not Avoided Until actual projects are demonstrated to be deferred or canceled EEI believes that although avoided transmission and distribution may be theoretically relevant to determining adequate compensation for DG, the measurement of such components is too speculative at this time. Currently, data does not support the notion that DG will assist in capacity value for the grid because solar does not generally reduce peak use. This is largely due to the fact that peak demand of residential customers occurs later in the afternoon and in the early evening after solar resources have substantially reduced or even stopped producing energy (i.e., peak-demand is not well correlated with solar output). Moreover, transmission and generation capacity is not necessarily avoided, but in some cases could be deferred. Nevertheless, even in the case of a possible delayed investment, reliability rules and the way that integrated resource planning (“IRP”) or the rules in organized markets work requires that utilities plan as if DG systems were not there at any time during a 2040 year planning horizon. Rules need to change for utilities to be able to take DG systems into account in their planning processes. Once those rules are in place then coincident capacity savings can potentially occur, but not before. Nevertheless, the threshold for considering whether there are avoided capacity savings arising from DG associated with the distribution system should be whether such benefits are known and measurable to the utility. B. Any Methodology for Assigning Value to DG Must Account for DG Integration Costs, including Increased Costs of Ancillary Services With respect to grid support services, EEI believes it is important for the Commission to recognize that because of the wide variability of DG solar systems and their outputs, the need for ancillary services will increase and that will necessarily impose additional cost on the utility. 7 Furthermore, it makes no sense to provide a credit for avoided grid costs to distributed generators unless they also pay the underlying grid costs themselves. In considering rates for distributed generators, it is fundamental to recognize the fact that any DG system connected to the transmission and distribution system continues to use grid services. Transmission and distribution system operators must take these new systems into account to preserve the continued reliability, safety, and security of the grid. While customers with DG systems generate some or all of their own electricity, they are still connected to the local electric utility’s grid and use the grid both to buy power from their electric utility during times when their DG systems are not producing enough to meet their needs and to sell power to their electric utility when their systems are producing more electricity than the customers need. DG customers are connnected to the grid and using grid services 24/7.2 In fact, interconnected DG transforms the distribution system from a one-way delivery mode into a complex two-way network for which electricity flows need to be carefully monitored and balanced. Recent experiences in Germany and Hawaii and a recent study conducted by North American Electric Reliability Corporation and the California ISO all demonstrate that high DG penetration complicates the design and operation of the distribution grid and requires electric utilities to invest in new systems to assure that the grid remains safe and reliable.3 Without such utility-provided safeguards, the grid and customer equipment can become damaged. In this regard, the Commission should include the integration costs associated with additional DG on a 2 See attached Exhibit A. 3 See http://www.nerc.com/pa/RAPA/ra/Reliability%20Assessments%20DL/NERCCAISO_VG_Assessment_Final.pdf 8 distribution system into any evaluation of avoided or delayed transmission and distribution system costs. C. The Commission Should Consider Only Known and Measurable Avoided Costs/Financial Risks With respect to the cost of energy and its delivery, the avoided energy costs are variable costs associated with the price of energy, such as fuel, variable O&M and generation unit starts that are avoided due to generation of DG. They are reflected directly in utility costs and rates. Therefore it would be double-counting to pay this amount to DG generators. Also, in quantifying displaced resources, current market prices should be used. Costs associated with hedging and market price mitigation would only be applicable if it was possible to know exactly what type of generation was displaced by the DG system. Moreover, if there is a reduction of market prices for energy because of DG systems, it is precisely that reduction that represents its compensation. DG systems should not be compensated directly for reducing market prices. For example, wind power is not separately compensated because of its impact on wholesale markets. It is the price for the sale of the power itself that constitutes the compensation. Additionally, solar DG does not avoid Renewable Energy Standard costs, but increases them since it makes procuring renewable energy more expensive than if the utility were to purchase it from lower cost central station renewables. D. Grid Security and Reliability Values Should Not Be Considered In Rates Grid security and reliability are significant interests, but values for such measures are difficult to quantify. Maintaining security and reliability require significant investment in the grid by electric utilities, and yet electric utilities are not additionally compensated for the value of providing these essential services to their customers. Rather, compensation is based on the 9 cost of needed services. Even if it can be determined that DG systems may make known and measureable net contributions to the security and reliability of the system, recognizing that these systems may also present a negative impact to grid security and reliability, they should not receive additional compensation just as utilities do not receive additional compensation for similar contributions. E. Environmental and Social Externalities Should Not Be Included in DG Rates While solar energy has an important and increasingly larger role to play in our energy mix, and the “value of solar” is important in considering future investment plans, this “value” has no role in setting wholesale and retail electricity rates. Prices paid for renewable energy from distributed generators should not include a value for externalities such as avoided emissions and jobs, unless these are allowed to be recovered in utility rates. Treatment of such externalities should be consistent for all customers and all resource types. All sources of electric generation provide substantial jobs and economic benefits; electric utilities are typically major drivers of their state and local economies. EEI is not aware of a public utility commission that allows utilities to recover in their rates any of these values with respect to central station solar, wind, or nuclear power and does not believe it would be equitable for only DG solar to do so. If societal benefits are not charged for in utility rates, they should be excluded from the methodology for developing rates to distributed generators. In addition, there is no agreed method for measuring and verifying societal benefits. The approaches developed to date, including the federal government’s proposals on the “social cost of carbon,” (“SCC”) are admittedly highly uncertain and speculative. The SCC is a range of estimates of the monetized damages associated with an incremental increase in carbon dioxide 10 (“CO2”) emissions in a given year. The Interagency Working Group (“IWG”), spearheaded by the White House Office of Management and Budget, develops these estimates to allow federal agencies to incorporate the social benefits of reducing CO2 emissions into the required costbenefit analyses of regulatory actions that would affect cumulative global emissions. As the IWG has noted, any efforts to assess the incremental impacts of CO2 emissions suffer from uncertainty, speculation and a lack of information about future emissions, the effects of past and future emissions on the climate system, the impact of changes in the climate on the physical and biological environment and the translation of these estimates into economic damages. Due to the serious limitations, both in terms of quantification and monetization, the IWG presents a range of possible SCC estimates. For example, the 2015 estimates (computed by the IWG 2013) range from $12 to $109 per metric ton of CO2 in 2007 dollars. These predictions are highly speculative and variations are highly sensitive to small changes in assumption for factors such as the discount rate. Accordingly, EEI does not believe the Commission should consider SCC in a methodology for determining DG compensation. CONCLUSION WHEREFORE, for the foregoing reasons, the Edison Electric Institute respectfully requests that the Commission accept these comments, and urges the Commission to adopt the recommendations as set forth above to focus its analysis of the cost and benefits of DG solar on the types of costs and proof requirements that the Commission applies in approving the rates that utilities may charge to their customers. 11 Dated: February 14, 2014 Respectfully submitted, Edward H. Corner Vice President, General Counsel and Corporate Secretary Aryeh Fishman Associate General Counsel, Regulatory Legal Affairs Edison Electric Institute 701 Avenue, NW Washington, DC 20004-2696 (202) 508-5000 Email: ecomer@eei.org 12 Exhibit A Value of the grid: reeftep eeler customers use the pewer grid 24 heure a day Typical grid intereetien with rn-thep eeler LEEIE MENU mmexcm 3W TII-lil .- - - urn-?Magma Cusl-nmnr gumraunnlinnurruhtrl I I I- t- I 13 Studies POWER RESEARCH INSTITUTE THE REALIZING THE FULL VALUE OF CENTRAL AND DISTRIBUTED ENERGY RESOURCES Access the full re art on Web site. California  Net  Energy  Metering  (NEM)   Draft  Cost-­‐Effectiveness  Evaluation     NEM  Study  Introduction   Prepared  by   California  Public  Utilities  Commission   Energy  Division     September  26,  2013   Project  Manager   Ehren  Seybert   Editors   Gabe  Petlin,  Katie  Wu   Supervisor   Melicia  Charles   Technical  Report  by   Energy  and  Environmental  Economics,  Inc.     CPUC  NEM  Report  Introduction   Introduction  to  the  Draft  Net  Energy  Metering  Cost-­‐ Effectiveness  Evaluation     The   California   Public   Utilities   Commission   (CPUC)   has   contracted   with   Energy   and   Environmental  Economics,  Inc.  (E3)  to  provide  an  evaluation  of  the  costs  and  benefits  of  the  net   energy  metering  (NEM)  program  in  California.  This  study  fulfills  the  requirements  of  Assembly   Bill   (AB)   2514   (Bradford,   2012)   and   Commission   Decision   (D.)   12-­‐05-­‐036,   to   study   “who   benefits,  and  who  bears  the  economic  burden,  if  any,  of  the  net  energy  metering  program”  by   October   1,   2013.     This   study   also   serves   as   an   update   to   the   CPUC’s   2010   NEM   Cost-­‐ Effectiveness  Evaluation.1     NEM  is  an  electricity  tariff  billing  mechanism  designed  to  facilitate  the  installation  of  renewable   customer   distributed   generation   (DG).     Under   NEM   tariffs,   customers   receive   a   bill   credit   for   generation  that  is  exported  to  the  electric  grid  during  times  when  it  is  not  serving  onsite  load.   Bill   credits   for   the   excess   generation   are   applied   to   a   customer’s   bill   at   the   same   retail   rate   (including   generation,   distribution,   and   transmission   components)   that   the   customer   would   have  paid  for  energy  consumption,  according  to  their  otherwise  applicable  rate  schedule.    This   study   also   provides   a   separate   evaluation   of   the   NEM   fuel   cell   program,   which   credits   the   generation   only   component   of   the   rate   for   participating   fuel   cells   that   achieve   targeted   reductions  in  greenhouse  gas  emissions.     Role  of  the  CPUC's  Energy  Division  in  the  Evaluation     The   CPUC's   Energy   Division   was   responsible   for   contracting   with   E3   and   overseeing   the   development  of  this  report.    Energy  Division  initiated  the  contract  process  in  the  spring  of  2012,   and  E3  was  selected  following  a  competitive  bidding  process.         In   October   2012,   Energy   Division   hosted   a   well-­‐attended   workshop   where   E3   consultants   previewed   the   methodology   and   scope   of   the   cost-­‐benefit   analysis,   avoided   public   purpose   charges,   and   income   distribution   sections   of   the   attached   report.   Formal   comments   were   solicited  from  interested  parties  on  November  5,  2012,  and  reply  comments  were  received  on   November   15,   2012.     E3   provided   responses   to   comments   in   the   December   study   scope   of   work.    Unfortunately,  due  to  delays  in  processing  the  funding  needed  to  conduct  the  full  cost  of   service  analysis,  the  methodology  for  the  NEM  full  cost  of  service  calculation  was  not  available   for  public  comment.    Utility  costs  of  service  were  emulated  from  the  methodology  filed  by  each   utility  in  its  most  recent  General  Rate  Case  (GRC).         1  http://www.cpuc.ca.gov/NR/rdonlyres/0F42385A-­‐FDBE-­‐4B76-­‐9AB3-­‐E6AD522DB862/0/nem_combined.pdf   1   CPUC  NEM  Report  Introduction   The  attached  NEM  Cost-­‐Effectiveness  Evaluation  is  a  draft  report  prepared  by  E3,  and  further   refinements  may  be  necessary  based  on  solicited  comments  to  the  draft  report.  Parties  should   not  cite  this  as  a  CPUC  report  or  cite  the  findings  in  this  version  of  the  report  as  conclusive.       Comments  on  the  Draft  Report     Energy   Division   invites   stakeholders   to   submit   informal   comments   on   the   analytics   and   assumptions   used   in   E3's   draft   analysis,   in   support   of   our   finalizing   the   2013   NEM   Study.   Comments  should  focus  on  and  be  limited  to  errors  in  the  calculations  used  in  the  report,  and   be   no   longer   than   five   (5)   pages   in   length.   Interested   parties   should   email   comments   to   Mr.   Ehren  Seybert  (Ehren.Seybert@cpuc.ca.gov)  by  October  10,  2013.    All  comments  received  will   be  posted  to  the  CPUC’s  NEM  study  webpage  along  with  responses  from  E3.2       Previous  presentation  materials,  stakeholder  comments,  and  the  draft  and  final  scope  of  work   are  available  on  the  CPUC’s  NEM  study  webpage.       Scope  of  the  Evaluation     When  the  CPUC’s  Energy  Division  initiated  the  contract  process  for  an  evaluation  of  NEM  in  the   spring  of  2012,  the  primary  focus  of  the  evaluation  was  to  incorporate  an   updated  and  more   robust  data  set  to  the  prior  methodologies  used  in  the  2010  NEM  Cost-­‐Effectiveness  Evaluation.     At   the   time,   the   analysis   was   limited   to   the   costs   and   benefits   of   generation   exports   to   the   electric  grid.  Following  the  request  for  proposals  (RFP)  for  the  study,  however,  two  mandates   were   adopted   –   Commission   D.   12-­‐05-­‐036   in   May   2012,   and   AB   2514   in   September   2012   –   which  added  significant  breadth  and  scope  to  the  study.  These  additional  tasks  include:     (1) A  cost-­‐benefit  study  of  NEM  at  the  capacity  needed  to  reach  the  solar  photovoltaic  goals   of  the  California  Solar  Initiative  and  the  5%  net  energy  metering  program  cap.  The  costs   and  benefits  of  NEM  should  be  evaluated  relative  to  energy  that  is  exported  to  the  grid   and  energy  consumed  onsite.     (2) An  evaluation  of  the  extent  to  which  NEM  customers  pay  their  share  of  utility  costs.     (3) An  estimate  of  the  reduction  in  public  purpose  charges  avoided  by  NEM  customer-­‐ generators.     (4) An  income  demographic  assessment  for  residential  customers  with  NEM  generation.     Unfortunately,   the   inclusion   of   multifaceted   analytical   approaches,   at   different   penetration   levels,   precludes   a   single,   simplified   answer   to   the   underlying   question   that   we   are   trying   to   address:   That   is,   who   benefits   from,   and   who   bears   the   economic   burden,   if   any,   of   the   net   energy  metering  program?    However,  when  taken  together,  the  various  analyses  included  in  the   2  http://www.cpuc.ca.gov/PUC/energy/Solar/nem_cost_effectiveness_evaluation.htm   2   CPUC  NEM  Report  Introduction   attached  NEM  Cost-­‐Effectiveness  Evaluation  shed  new  light  on  the  impacts  of  the  NEM  program   in   California,   provided   that   the   results   are   interpreted   alongside   the   metrics   used   in   the   evaluation,  and  in  the  context  of  current  DG  policies  and  utility  operations.    Two  of  the  more   complex  issues  included  in  the  report  are  discussed  in  more  detail  below.           Lastly,   it   is   important   to   note   that   the   attached   NEM   Cost-­‐Effectiveness   Evaluation   is   focused   exclusively   on   the   utility   ratepayer   impacts   of   NEM,   and   does   not   include   the   overall   societal   benefits   from   the   deployment   of   clean   energy   resources,   although   significant   environmental,   public   health   and   other   non-­‐energy   benefits   occur.   The   importance   of   the   environmental   benefits  that  result  from  of  the  deployment  of  renewable  generation  is  well  established  within   the   California   Energy   Action   Plan,   and   is   reflected   in   a   number   of   the   state’s   DG   policies,   including   the   Go   Solar   California   campaign,   the   Commission’s   Self-­‐Generation   Incentive   Program,  as  well  as  the  NEM  program.       NEM  Cost-­‐Benefit  Analysis  vs.  Full  Cost  of  Service       At   its   most   basic   level,   the   attached   study   employs   two   separate   ratepayer   impact   measures:   A   cost-­‐benefit   analysis   of   the   NEM   program   using   the   traditional   California   Standard   Practices   Manual   (SPM)   Ratepayer   Impact   (RIM)   test,   which   estimates   the   net   benefits   (or   costs)   of   a   demand-­‐side  resource  or  program  from  the  perspective  of  non-­‐participating  customers,  and  a   full  cost  of  service  assessment,  which  compares  the  utility  cost  of  serving  NEM  customers  with   their  actual  bill  payments.           In  the  cost-­‐benefit  analysis,  E3  evaluates  the  change  in  utility  costs  associated  with  the  change   in   usage   due   to   the   installation   of   DG.   If   the   customer   bill   savings   resulting   from   NEM   are   greater  than  the  corresponding  reduction  in  utility  costs,  NEM  will  create  a  cost  shift  from  NEM   customers  to  other  non-­‐participating  customers  as  utilities  adjust  their  rates  to  compensate  for   the   shortfall.   Alternatively,   if   the   reductions   in   customer   bill   savings   are   less   than   the   reduction   in  utility  costs,  non-­‐participating  customers  experience  a  net  benefit.  Note  that  this  approach   does   not   address   or   reflect   any   pre-­‐existing   cost   shift   onto   NEM   customers   prior   to   the   installation  of  distributed  generation.     In   the   full   cost   of   service   analysis,   E3   evaluates   the   total   cost   to   serve   the   remaining   energy   usage  after  accounting  for  the  change  in  usage  due  to  the  installation  of  DG.  The  cost  of  service   assessment   compares   the   actual   bills   that   NEM   customers   pay   to   the   utility   costs   (including   fixed  costs)  needed  to  serve  those  customers.      Utility  costs  of  service  are  emulated  from  the   methodology  that  each  utility  used  in  their  most  recent  GRC.     Despite  the  use  of  different  metrics,  a  central  driver  in  both  the  cost-­‐benefit  and  cost  of  service   analyses   is   current   retail   rate   designs.     For   residential   NEM   customers,   tiered   rates   (for   which   a   customer’s   marginal   electricity   rate   increases   with   cumulative   usage)   and   tiered   time-­‐of-­‐use   rates  are  the  most  commonly  subscribed.    As  described  in  more  detail  below,  changes  to  the   tiered   rates   would   have   a   significant   impact   on   the   study   results.     Similarly,   differences   in   retail   3   CPUC  NEM  Report  Introduction   rates  should  be  an  important  consideration  for  policymakers  outside  of  California  that  are  using   this  study.         Export  Only  vs.  All  NEM  Generation     One   of   the   key   drivers   of   the   magnitude   of   any   cost   impact   is   what   generation   is   measured.     Pursuant   to   AB   2514,   the   cost-­‐benefit   analysis   included   in   this   study   considers   all   NEM   generation  as  well  as  only  the  generation  that  is  exported  to  the  grid.         The  most  explicit  impact  of  NEM  is  associated  with  energy  exports  to  the  grid;  both  NEM  and   Non-­‐NEM  DG  receive  bill  reductions  during  hours  when  generation  is  offsetting  onsite  load,  but   only  NEM  customers  receive  bill  credit  for  generation  that  is  exported  to  the  grid.         To   the   extent   that   NEM   compensation   allows   a   project   to   be   viable,   the   entire   NEM   generation   is   a   useful   metric.     In   this   instance,   an   exact   measure   of   the   effect   of   NEM   on   ratepayers   would   compare   the   state   of   the   world   with   NEM   to   that   without   NEM,   and   calculate   the   ratepayer   costs  under  both.    Unfortunately,  the  state  of  the  world  in  the  absence  of  NEM  is  a  theoretical   and  unknown  condition,  which  is  further  confounded  by  other  incentive  programs  designed  to   facilitate   the   deployment   of   DG   (such   as   the   Federal   Income   Tax   Credit,   California   Solar   Initiative,   and   Self-­‐Generation   Incentive   Program).     Because   it   is   uncertain   how   much   renewable  DG  would  be  installed  in  California  without  NEM,  or  how  customers  might  choose  to   size   their   DG   or   change   their   electricity   usage   to   better   align   with   the   DG   output,   the   all   generation   scenario   included   in   the   attached   report   likely   overestimates   the   costs   that   are   directly  associated  with  NEM.       Solar  is  Primary  Focus  of  the  Report       The   attached   report   focuses   exclusively   on   the   NEM   program   within   the   territories   of   the   three   large  investor-­‐owned  utilities  (IOUs),  which  had  enrolled  over  150,000  customers  totaling  1,300   MW   through   the   end   of   2012.     Collectively,   these   systems   generated   about   2,400   GWh   of   annual   electricity.   The   vast   majority   of   customers   on   NEM   tariffs   had   installed   solar   PV   (99%   of   accounts,   and   96%   of   capacity).   Customers   with   wind   and   bioenergy   generation   make   up   the   remaining   1   percent.     A   separate   evaluation   of   fuel   cell   NEM,   which   provides   credits   at   the   generation  only  component  of  the  rate  for  fuel  cells,  including  those  that  are  fueled  by  natural   gas,  is  also  included  in  the  report.     Customer-­‐sited  solar  PV  installations  that  are  not  enrolled  on  a  NEM  tariff  are  excluded  from   this   report.     As   of   June   2013,   492   installations   in   IOU   services   areas   representing   over   110   MW   of   generating   capacity   opted   to   not   take   NEM   tariffs,   presumably   because   their   solar   generation   was   not   expected   to   exceed   load   at   any   time,   and   thus   no   benefits   would   be   accrued  from  NEM.3       3  Source:  Energy  Division  Second  Quarter  2013  Interconnection  Data  Request   4   CPUC  NEM  Report  Introduction     Impact  of  Possible  Rate  Reform     The   CPUC   currently   has   an   open   proceeding   analyzing   future   residential   rate   designs   beyond   the   current   inclining   block   tiered   rates   that   are   in   place   for   most   residential   customers   today   (R.12-­‐06-­‐013).   In   addition,   the   Legislature   recently   approved   AB   327   (Perea),   which   greatly   expands  the  CPUC’s  authority  to  approve  residential  rate  designs  that  more  accurately  reflect   the   true   cost   of   utility   service   and   move   away   from   the   current   tiered   rate   structure.       A  large  portion  of  the  cost  impacts  associated  with  residential  NEM  that  are  identified  in  this   report   are   the   result   of   the   current   rate   designs.   The   analysis   in   this   report   shows   that,   on   average,  residential  NEM  customers  would  have  paid  utility  bills  that  are  154%  higher  than  the   utility’s  cost  of  providing  service  if  they  had  not  installed  a  NEM-­‐eligible  DG  system.  This  high   cost   is   due   to   the   fact   that   most   residential   NEM   customers   are   in   the   higher   tiers.   These   customers  stand  to  benefit  the  most  by  installing  NEM-­‐eligible  DG  systems,  but  as  discussed  in   section  4.5.1  of  the  report,  the  higher  cost  tiers  also  drive  most  of  the  residential  cost  impacts   identified  in  the  report’s  cost-­‐benefit  analysis.       While   forecasting   the   impact   of   specific   changes   to   the   current   rate   design   is   beyond   the   scope   of  this  study,  the  impacts  of  the  larger  residential  customers  on  the  overall  cost-­‐benefit  analysis   make  it  clear  that  changes  in  the  current  tiered  rate  structures  will  also  dramatically  improve   the  cost-­‐benefit  results  of  NEM.     5   Draft California Net Energy Metering Evaluation Prepared for: California Public Utilities Commission 505 Van Ness Avenue San Francisco, CA 94102 September 26, 2013 Draft California Net Energy Metering Evaluation Prepared for: California Public Utilities Commission 505 Van Ness Avenue San Francisco, CA 94102 September 26, 2013 Energy and Environmental Economics, Inc. 101 Montgomery Street, Suite 1600 San Francisco, CA 94104 415.391.5100 www.ethree.com This report prepared by: Snuller Price Brian Horii Michael King Andrew DeBenedictis Jenya Kahn-Lang Katie Pickrell Ben Haley Jon Kadish Ryan Jones Julia Sohnen Jerry Bowers, Advent Consulting Associates Table of Contents 1 2 3 4 Executive Summary .............................................................................. 1 1.1 Net Energy Metering (NEM) Overview ............................................. 1 1.2 Scope of Evaluation.............................................................................. 2 1.3 Summary of Cost-Benefit Analysis Results ..................................... 5 1.4 Summary of Cost of Service Results ................................................ 9 1.5 Public Purpose Charges .................................................................... 11 1.6 Income Distribution of NEM Participants ........................................ 11 Introduction ...........................................................................................13 2.1 Net Energy Metering (NEM) Program Overview .......................... 13 2.2 Analysis Framework ........................................................................... 16 2.3 Terminology Employed ...................................................................... 19 Customer Characterization .................................................................25 3.1 Installed NEM Capacity ..................................................................... 25 3.2 Forecasted Penetration Levels ........................................................ 27 3.3 Data and Methodology for Estimating NEM Customer Profiles . 30 Cost-Benefit Analysis ..........................................................................39 4.1 Cost-Benefit Analysis Approach ...................................................... 39 4.2 Bill Savings ........................................................................................... 43 4.3 Avoided Costs...................................................................................... 53 4.4 Program Costs..................................................................................... 63 5 6 7 4.5 Cost-Benefit Analysis Results .......................................................... 68 4.6 Benchmarking to 2010 Study ........................................................... 77 4.7 NEMFC Results .................................................................................. 79 Full Cost of Service.............................................................................. 83 5.1 Full Cost of Service Approach.......................................................... 85 5.2 Full Cost of Service Results ............................................................. 95 Avoided Public Purpose and Other Charges................................. 105 6.1 Methodology ...................................................................................... 105 6.2 Results ................................................................................................ 105 Household Income of NEM Customers .......................................... 109 7.1 Methodology ...................................................................................... 109 7.2 Results ................................................................................................ 110 APPENDIX A: Data Collection and Binning Methods APPENDIX B: NEM Bill Calculations APPENDIX C: Avoided Cost Calculations APPENDIX D: Cost of Service Calculations APPENDIX E: NEM Customer Income Analysis APPENDIX F: Public Model User Guide APPENDEX G: Public Utility Code and Statutes Executive Summary 1 Executive Summary 1.1 Net Energy Metering (NEM) Overview This study evaluates the ratepayer impacts of the California net energy metering (NEM) program and fulfills the requirements of Assembly Bill (AB) 2514 (Bradford, 2012)1 and Commission Decision (D.) 12-05-036 to determine “who benefits, and who bears the economic burden, if any, of the net energy metering program,” by October 1, 2013.2 NEM is an electricity tariff that facilitates the deployment of on-site renewable distributed generation (DG).3 Under NEM tariffs, customers receive a bill credit for energy that they generate and export to the grid. In this study we evaluate the two types of NEM: Renewable NEM, which provides credits at the full retail rate for solar PV, wind, and bioenergy generation; and fuel cell NEM, which provides credits at the generation only component of the rate for fuel cells, including those fueled by natural gas. The vast majority of NEM customers in California are solar PV (99% of accounts, and 96% of capacity). At the end of 2012, California’s three largest investor- 1 See Appendix G for further information about AB 2514 This study will also serve as an update to the CPUC’s 2010 NEM Cost Effectiveness Evaluation (2010 NEM Study) http://www.cpuc.ca.gov/NR/rdonlyres/0F42385A-FDBE-4B76-9AB3-E6AD522DB862/0/nem_combined.pdf 3 Public Utilities Code 2827 (b) (4) 2 © 2010 Energy and Environmental Economics, Inc. Page 1 Executive Summary owned utilities (IOUs)4 had approximately 150,000 customers enrolled in NEM, totaling 1,300 MW of installed capacity. Collectively, these systems generated about 2,400 GWh of electricity during 2012. 1.2 Scope of Evaluation We did four principle analyses in this study to characterize “who benefits from, and who bears the economic burden, if any, of, the net energy metering program”5 as required in statute: (1) Cost-benefit analysis of NEM to estimate any costs shifted from NEM customers to other customers, (2) Cost of service evaluation to estimate the degree NEM customers pay their share of utility costs, (3) Public purpose charge savings to estimate the reduction in payments of NEM customers toward public purpose programs, and (4) Income demographic assessment to learn more about the household incomes of residential customers with NEM generation. The study is based on the current NEM policy in California that is defined by a number of rules, including the 5% NEM cap established by D. 12-05-036, the net surplus compensation rate under AB 920 (Huffman, 2009), and the existing 4 5 The IOUs are Pacific Gas and Electric, Southern California Edison, and San Diego Gas and Electric. All quotes in this section are from AB 2514, the full text of which is provided in Appendix G. © 2010 Energy and Environmental Economics, Inc. Page 2 Executive Summary retail tariff designs at each utility. Changes to the structure of the NEM policy, or to the retail rate structures, would change the results of this study. 1.2.1 NEM COST-BENEFIT ANALYSIS In the cost-benefit analysis, we compare the reduction in NEM customer bills to the reduction in utility costs. To the extent that the NEM customer’s bill reduction is greater than offsetting utility savings, NEM will create a cost shift from NEM customers to other customers as utilities adjust their rates to compensate for the shortfall. The results of the analysis are disaggregated by a number of dimensions, including by “utility, and customer class,” and for “household income groups within the residential class.” One of the key drivers of the magnitude of any cost impact is what generation is measured; all of the NEM generation, or only the electricity generated that is exported to the grid. We recognize that this issue is controversial, and therefore measure the net cost both ways. The net cost of the specific mechanism enabled by NEM, namely the ability to ‘export’ electricity to the utility at the retail rate, is measured by the ‘export only’ case in this study. This approach disregards NEM generation consumed on the customer premise. We also calculate the net cost of the entire NEM generator output. To the extent NEM compensation enables the whole DG project to be viable, and the total output of the project results in a cost to non-NEM customers, the entire NEM generation is the appropriate scope to measure the impact on non-NEM customers. © 2010 Energy and Environmental Economics, Inc. Page 3 Executive Summary We analyze the costs and benefits of NEM at three different levels of installed capacity: A forecast from the actual installed capacity at the end of 2012 (‘2012 Snapshot’ case), totaling approximately 1,305 MW; the capacity needed to reach the goals of the California Solar Initiative (CSI) (‘Full CSI Subscription’), totaling 2,916MW6; and the capacity needed to reach the 5% net metering cap as defined by D. 12-05-036 (‘Full NEM Subscription’), forecast to be reached in 2020 at approximately 5,573 MW. Other key input assumptions for which there is uncertainty, such as future natural gas prices, CO2 prices, retail rate escalation, cost of interconnecting and integrating NEM generation, and avoidance of transmission and distribution system capacity costs, are considered through sensitivity analyses. 1.2.2 COST OF SERVICE OF NEM In addition to cost-benefit analysis, we evaluate “the extent to which each class of ratepayers and each region of the state receiving service under the net energy metering program is paying the full cost of the services provided to them by electrical corporations.” In the cost of service assessment we compare the resulting bills of NEM customers to their full cost of service. Full cost of service is a regulated utility term that includes all utility costs including an appropriate share of utility fixed costs to serve the customer. We emulate the methodology each utility used in their most recent General Rate Case (GRC) cost of service allocations. 6 The cost of service analysis is an indicator of whether NEM Includes solar, wind, and other NEM generation © 2010 Energy and Environmental Economics, Inc. Page 4 Executive Summary customers pay their fair share of utility costs for use of the utility distribution system. 1.2.3 PUBLIC PURPOSE CHARGES We disaggregate the NEM customer bill savings to estimate the savings of NEM customers in public purpose charges. In addition to public purpose charges, we decompose the bill savings into all of the other subcomponents of the NEM customer bill. 1.2.4 INCOME DISTRIBUTION OF NEM CUSTOMERS We estimate the distribution of the household income of residential NEM customers based on the median household income by census tract and census block group using 2010 data provided by the IOUs. The current methodology for the publicly reported household income information is based on zip code, which is less granular than census tract and census block group levels. We believe the much smaller geographic areas and more homogenous demographics in census tract provide much better accuracy. 1.3 Summary of Cost-Benefit Analysis Results 1.3.1 NET ENERGY METERING COST-BENEFIT ANALYSIS Table 1 shows the net cost of NEM exports to the grid by residential and nonresidential customers for each of the three penetration levels. In 2020, with a complete build out of systems to the existing NEM cap, the costs associated © 2010 Energy and Environmental Economics, Inc. Page 5 Executive Summary with NEM electricity exported to the grid under the current NEM tariffs are approximately $359 million per year, or 1% of the utility revenue requirement. Table 1: Net Cost of NEM Generation Exports in 2020 (Millions $2012/year) 2012 Snapshot Full CSI Subscription Full NEM Subscription Residential $60 $83 $287 Non-Residential $16 $37 $72 Total $75 $120 $359 0.22% 0.34% 1.03% % of Revenue Requirement Table 2 shows the net cost of all NEM generation by residential and nonresidential customers for each of the three penetration levels. The costs associated with all NEM generation are forecast to be approximately $1.1 billion per year in 2020 (in $2012). This is approximately 3.2% of the forecasted utility revenue requirement. © 2010 Energy and Environmental Economics, Inc. Page 6 Executive Summary Table 2: Net Cost of All NEM Generation in 2020 (Millions $2012/year) 2012 Snapshot Full CSI Subscription Full NEM Subscription Residential $183 $251 $797 Non-Residential $71 $185 $306 Total $254 $436 $1,103 % of Revenue Requirement 0.73% 1.25% 3.16% Approximately 2/3 of the net transfer is from residential NEM systems, with 1/3 of the net transfer from non-residential NEM systems. This is despite nonresidential systems accounting for 56% of the installed NEM capacity. The bill savings for NEM customers are entirely a function of the retail rate designs for each customer class and utility. In particular, there are significant differences between residential and commercial customer rates. The cost impact from residential NEM systems is significantly greater (levelized net cost of $0.20/kWh generated) in the All Generation case than the cost impact from non-residential systems (levelized net cost of $0.08/kWh generated) due to the residential inclining block rate design. Relative to the residential rates, the commercial rates generally include lower energy charges as well as demand charges related to the customer peak load. Because NEM systems tend to reduce net energy consumption by a greater percentage than they reduce peak demand, residential NEM customers tend to experience greater bill savings than commercial customers. Table 3 and Table 4 show the net cost of residential customers broken out by customer size. The larger customers are generally customers in the higher © 2010 Energy and Environmental Economics, Inc. Page 7 Executive Summary inclining block tiers. These results indicate that possible changes to the residential rate structure could have significant impacts on the costs associated with residential NEM generation. Table 3: Levelized Cost of NEM for Residential Customers by Usage Bin - Export Only (Levelized $/kWh) PG&E SCE SDG&E All IOUs Number of Customers < 5 MWh 0.01 0.03 0.05 0.03 12,621 5 to 10 MWh 0.08 0.08 0.10 0.09 46,056 10 to 25 MWh 0.21 0.15 0.17 0.17 71,992 25 to 50 MWh 0.30 0.22 0.23 0.25 8,150 50 to 100 MWh 0.27 0.24 - 0.25 360 100 to 500 MWh 0.31 - - 0.31 18 Average 0.18 0.14 0.14 0.15 139,197 Customer Usage © 2010 Energy and Environmental Economics, Inc. Page 8 Executive Summary Table 4: Levelized Cost of NEM for Residential Customers by Usage Bin - All Generation (Levelized $/kWh) PG&E SCE SDG&E All IOUs Number of Customers < 5 MWh 0.02 0.03 0.05 0.04 12,621 5 to 10 MWh 0.14 0.11 0.15 0.13 46,056 10 to 25 MWh 0.30 0.18 0.23 0.23 71,992 25 to 50 MWh 0.35 0.23 0.26 0.28 8,150 50 to 100 MWh 0.33 0.25 - 0.28 360 100 to 500 MWh 0.35 - - 0.35 18 Average 0.26 0.17 0.19 0.20 139,197 Customer Usage In the remainder of the report we provide significantly more detail and disaggregation of the results for each of the respective analyses, as well as results of sensitivities. In addition, a spreadsheet tool of calculations and results has been made available to enable further disaggregation and testing of additional sensitivities. 1.4 Summary of Cost of Service Results The full cost of service analysis looks at the degree to which NEM customers pay the utility costs associated with providing them service. In the full cost of service analysis we find that both the residential and non-residential customers look significantly different than typical customers. Residential NEM customers who install renewable DG are larger than the average residential customer. Because of the utility tiered rate structures, residential NEM customer bills were 54% greater than their cost of service, on average, before the installation of © 2010 Energy and Environmental Economics, Inc. Page 9 Executive Summary NEM generation. Non-residential NEM accounts had bills that exceeded their full cost of service by 22%. In the residential class, the differences were largely explained by the customer size and tiered rates. In the non-residential class, the reasons are linked more to an account’s usage pattern, rather than total usage. After the installation of NEM generation, the aggregate gap between bills and the full cost of service shrinks dramatically. Whereas total annual bills were $175 million in excess of the full cost of service before DG, the difference is only $23 million after DG. The relative changes to bills and full cost of service, however, are not uniform across all utilities and customer sectors. Table 5 shows that, with renewable DG, NEM residential customers pay 88% of their full cost of service compared to 154% before DG, and non-residential NEM customers pay 113%, compared to 122% before DG. Overall, based on limited information for a single year, the NEM accounts appear to be paying slightly more than their full cost of service. Table 5: Percent Cost of Service Recovery from NEM Customers in 2011 With and Without DG Systems (% of Full Cost of Service) PG&E SCE SDG&E All IOUs Without DG With DG Without DG With DG Without DG With DG Without DG With DG Residential 171% 93% 152% 101% 101% 60% 154% 88% NonResidential 128% 106% 110% 108% 124% 122% 122% 113% Total 146% 101% 122% 107% 119% 112% 133% 106% © 2010 Energy and Environmental Economics, Inc. P a g e 10 Executive Summary 1.5 Public Purpose Charges In 2020, with a complete deployment of systems to the NEM cap, NEM customers avoid approximately $172 million in public purpose charges, or about 6.5% of the total estimated 2020 public purpose funding. Table 6: Bill Savings in Public Purpose Charges from NEM in 2020 ($2012 Million/year) 2012 Snapshot Full CSI Subscription Full NEM Subscription Residential $15 $21 $67 Non-Residential $18 $53 $80 Total $33 $74 $147 Total as % of Total Public Purpose Charges 2.0% 3.3% 6.5% 1.6 Income Distribution of NEM Participants Within the residential sector, we find that the customers installing NEM systems since 1999 have an average median household income (based on IOU-provided data at the census tract level7) of $91,210, compared to the median income in California of $54,283 and in the IOU service territories of $67,821. In our population of NEM customers, 78% had higher than the median California household income, and 34% had higher than the median household income of IOU customers. Figure 1 shows the 2010 household income in the census tract of the customers that installed NEM generation since 1999 and the IOU and 7 Some data was provided at the more granular census block group level. © 2010 Energy and Environmental Economics, Inc. P a g e 11 Executive Summary California median household incomes overall. The median household income of NEM customers has been relatively consistent since 1999, but peaked in 2007 and has been declining moderately since. Figure 1: NEM 2010 Household Income by Installation Year Compared to IOU and California Median Income © 2010 Energy and Environmental Economics, Inc. P a g e 12 Evaluation of Hawaii?s Renewable Energy Policy and Procurement Final Report January 2014 Revision Energy: Environmental Economics Evaluation of Hawaii?s Renewable Energy Policy and Procurement Final Report January 2014 Revision 2014 Copyright. All Rights Reserved. Energy and Environmental Economics, Inc. 101 Montgomery Street, Suite 1600 San Francisco, CA 94104 415.391.5100 This material is based upon work supported by the Department of Energy, under Award Number(s) 0E?0i50000123. Disclaimer: This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor any of their employees, makes any warranty, express or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government or any agency thereof. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof. Executive Summary .. 1 Cost-Benefit Analysis Methodology .. 6 2.1 Overview .. 6 2.2 Benefits .. 8 2.2.1 Avoided Cost Components .. 9 2.2.2 Avoided Cost Scenario Analysis .. 24 2.3 PUC Scenarios Developed .. 26 2.4 Costs ..30 2.4.1 Utility-Scale Procurement Costs ..31 2.4.2 Feed In Tariff Costs .. 31 2.4.3 Net Energy Metering Costs .. 31 Results ..36 3.1 Avoided Cost Components .. 36 3.2 HECO Avoided Cost Results .. 39 3.3 HELCO Avoided Cost Results .. 44 3.4 MECO Avoided Cost Results .. 48 3.5 KIUC Avoided Cost Results .. 50 3.6 Avoided Cost Conclusions .. 53 3.7 Net Cost Comparison .. 54 3.7.1 Utility Procurement .. 54 Table of Contents 3.7.2 Feed-in Tariff .. 56 5 3.7.3 Net Energy Metering .. 59 3.8 Net Cost Policy Comparison Conclusions .. 66 Comparison to Alternate Policy Design .. 67 4.1 Traditional Net Energy Metering Policy .. 67 4.1.1 Net Energy Metering in Hawaii .. 67 4.1.2 California Net Energy Metering .. 68 4.2 Virtual Net Metering and Community Energy .. 70 4.2.1 Community Solar in Hawaii .. 70 4.2.2 California Virtual Net Metering .. 71 4.2.3 Colorado Community Solar Gardens .. 72 4.2.4 Sacramento Municipal Utility District Solar Shares Program .. 74 4.3 Feed?In Tariff Policy .. 75 4.3.1 Hawaii Feed-In Tariff .. 76 4.3.2 California Feed-in tariff .. 78 4.3.3 Long Island Power Authority Feed-in Tariff .. 80 4.4 Alternate Policy Design Summary .. 80 Summary and Conclusions .. 81 Executive Summary 1 Executive Summary The State of Hawaii has ambitious goals for renewable energy development with a target of 40% of the State's electricity coming from renewable generation by 2030. Under a National Association of Regulatory Commissioners (NARUC) funded grant, Energy and Environmental Economics, Inc. (E3) was retained by the Hawaii Public Utilities Commission (PUC) to develop a methodology and compare the economics of different renewable generation procurement options. This study evaluates some of the key renewable policy and procurement options in the service territories of Hawaiian Electric Company, Inc. (HECO), Hawaii Electric Light Company, Inc. (HELCO), Maui Electric Company, Limited (MECO), and Kauai Island Utility Cooperative (KIUC). After the completion ofthis first phase of study, the PUC will continue to work with E3 to further refine the approach and evaluate potential changes to the existing planning and procurement of renewable energy with the goal of reducing costs of renewables to ratepayers in Hawaii and or increasing their value. E3 will provide technical assistance to the PUC in this next phase by updating and improving the modeling and evaluation tools and running stakeholder workshops to incorporate and validate the approach. 2014 Energy and Environmental Economics, Inc. a 1 Evaluation of Hawaii?s Renewable Energy Policy and Procurement In this phase, we develop an economic framework that can consistently compare procurement options across all the Hawaiian Islands using a transparent and industry standard approach, and we then perform an assessment of current renewable procurement options in Hawaii. The basis for comparison in this study is net cost (or value) of each renewable procurement option to ratepayers. The net cost is calculated as the difference between the cost of renewable purchases, including any associated ratepayer costs for interconnection, integration, and delivery, and the avoided costs, including displaced conventional power plants, reduced fuel consumption, and other avoided costs. We evaluate the following procurement Options; utility-scale renewables purchased through competitive bidding, smaller scale renewable energy systems purchased through feed-in-tariff (FIT), and behind the meter renewables ?purchased? through net energy metering (NEM). We find that renewable energy provides a significant opportunity for Hawaii to reduce electricity costs to customers. There are many renewable technology types that provide net value to ratepayers. These include various sizes of wind energy and solar photovoltaic generation on each island, as well as in-iine hydroelectric generation. Given the high costs of purchasing petroleum fuels for energy on the islands, these approaches can lower utility costs. However, not every approach to procuring renewable energy and deploying it in Hawaii provides net value. We find that biofuel resources are more costly than conventional generation and other renewable options. We find that customer- owned generators that sell energy to the system through NEM tariffs at full retail Page 2l Executive Summary credit impose costs that exceed the avoided costs (the value to the system). However, these findings are based upon currently available information on energy and system costs and it is expected that additional data and improvements to the methodology would further strengthen the analysis. In addition, this initial version of the analysis excludes certain externalities, equity considerations, and fuel price volatility impacts as well as other important regulatory considerations that are not easily monetized. These findings are based on the current procurement approaches in place in Hawaii. In this report we include a review of alternative procurement approaches that could be considered as a means to further reduce ratepayer costs as the PUC reviews different resource portfolios and reviews policies such as FIT and NEM. Beyond the net value of specific renewable energy types, we find that the portfolio of renewable energy systems is important, and there is value in a diversity of geographic locations and technology types to smooth out the production of renewable energy and reduce the volatility on the system. In the analysis completed in Phase 1, diversity generally reduces variability in the production of renewable energy over the course of the year and displaces higher cost generation and the need for conventional generation. We suspect that diversity will also decrease the costs to integrate renewable energy which could 2014 Energy and Environmental Economics, Inc. a 3 Evaluation of Hawaii?s Renewable Energy Policy and Procurement be illustrated with more detailed modeling of the operation of the island grid systems.l As noted above, we recognize that there are more considerations around developing renewable energy in Hawaii than net cost and that these are not included in this study. Additional positive aspects of renewable energy that are not considered include the financial certainty of renewable purchases and reducing sensitivity to oil price fluctuations, and the positive environmental and quality of life benefits from cleaner air, water, and reduced greenhouse gas (GHG) emissions. Renewable energy also provides more intangible values of energy independence and sustainability. There are also negative aspects not considered that include increased land use and the visibility of renewable energy systems. Finally, there are other considerations such as equity in access to renewable energy and the distributional impacts amongst those who benefit and those who bear any costs associated with renewables. We believe that all of these issues should be considered in the development of renewable energy policy and the development of specific projects. To the extent possible, these important elements should be included in future regulatory proceedings in addition to the net cost approach presented here. 1 "Implications of Wide?Area Geographic Diversity for Short?Term Variability of Solar Power.? Ryan Wiser and Andrew Mills. LBNL. September 2010. "Operating Reserves and Variable Generation.? Erik Ela, Michael Milligan, and Brendan Kirby. NREL. August 2011. Page Executive Summary In conclusion, we believe that renewable energy continues to provide a great opportunity for Hawaii to address its existing and future energy challenges. Through careful planning and procurement of renewable generation that focuses on ratepayer value, Hawaii can both reduce costs and improve the environment. In the report that follows, we provide a detailed description of our methodology for developing avoided costs. Then we show the results that support our conclusions above. Next, the report provides an overview of alternative renewable procurement approaches from otherjurisdictions which is intended to inform future procurement decisions and policy designs in Hawaii. Finally, we provide conclusions and next steps to improve and refine the tools developed to date and engage stakeholders to consider modifications to renewable procurement that can decrease costs and increase the value of renewables. These modifications can provide greater ratepayer benefits of renewables to Hawaii. 2014 Energy and Environmental Economics, Inc. a 50cm I - 7i. OUNTAIN A ?b I THE ECONOMICS OF GRID AND WHERE DISTRIBUT ED PLL STORAGE COMPETES UTILITY SERVICE trap;- I AUTHORS ROCKY MOUNTAIN INSTITUTE Jon Creyts, Leia Guccione, Maite Madrazo, James Mandel, Bodhi Rader, Dan Self, and Peter Bronski HOMER ENERGY Jeffrey Abromowitz, John Glassmire, and Peter Lilienthal COHNREZNICK THINK ENERGY Mark Crowdis, John Richardson, Evan Schmitt, and Helen Tocco - MOUNTAIN Since 1982, Rocky Mountain institute has advanced market?based solutions that transform global energy use to create a clean, prOSperous, and secure future. An independent, nonprofit think-and-do tank, RMI engages with businesses, communities, and institutions to accelerate and scale replicable solutions that drive the cost-effective shift from fossil fuels to efficiency and renewables. Please visit for more information. ROCKY Tl NR Hurt Founded in 2000, CohnReznick Think Energy, LLC is a fullrservice renewable energy consulting firm specializing in request for proposal (REP) management, project development support, due diligence advisory, and energy purchasing services. CohnReznick Think Energy has assembled a team skilled in energy, economic, financial, and policy analysis; project management; engineering; technology and resource evaluation; and project deveIOpment. The team has worked on more than 38 active solar projects representing over 500 MWs of capacity. HOMER Energy, LLC provides software, consulting, and market access services for analyzing and optimizing microgrids and other distributed power systems that incorporate high penetrations of renewable energy sources. The HOMER software is the global standard for economic analysis of sustainable microgrid systems, with over 100,000 users in 193 countries. HOMER was originally developed at the US. Department of Energy?s National Renewable Energy Laboratory (NREL). Its developers are now the principals of HOMER Energy, which has the exclusive license. THE ECONOMICS OF GRID DEFECTION 2 TABLE OF CONTENTS KW V, . . ii 00 Declining Costs for Distributed Energy Technologies Adoption Driving Forces for Off?Grid Systems Regulatory changes Purpose Why Solar?PIus?Batteries? Analytical Approach +x H. Commercial Applications Residential Applications The lniluence oiecceleratec.? technology improvements and concurrent in-Iestrnents in demand?side improvements?A Focus on Los Angeles County Beyond Los Angeles??A Look at Regional Utility Rate Deciles A: Additional solar?plus?battery system cost information B: irnprovumntf: a 1d loaf! iiexii: iiLy C: Additional technical performance assumptions D: Homer Modeling E: Financial assumptions section F: Diesel standby generator permitting, emissions. and run time. G: Analytical results by geography @58995 THE Ecomoriics OF GRID DEFECTJON l3 INSTITUTEU EXECUTIVE SUMMARY .1 mmw.u\w.7._ W4.) . . .4 . EXECUTIVE SUMMARY Distributed electricity generation, especially solar PV, is rapidly spreading and getting much cheaper. Distributed electricity storage is doing the same, thanks largely to mass production of batteries for electric vehicles. Solar power is already starting to erode some utilities? sales and revenues. But what happens when solar and batteriesjoin forces? Together they can make the electric grid optional for many customers?without compromising reliability and increasingly at prices cheaper than utility retail electricity. Equipped with a solar?plus?battery system, customers can take or leave traditional utility service with what amounts to a ?utility in a box.? This ?utility in a box? represents a fundamentally different challenge for utilities. Whereas other technologies, including solar PV and other distributed resources without storage, net metering, and energy efficiency still require some degree of grid dependence, solar?pius?batteries enable customers to cut the cord to their utility entirely. Notably, the point at which solar?pius?battery systems reach grid parity?already here in some areas and imminent in many others for millions of US customers?is well within the 30-year planned economic life of central power plants and transmission infrastructure. Such parity and the customer defections it could trigger would strand those costly utility assets. Even before mass defection, a growing number of early adopters could trigger a spiral of falling sales and rising electricity prices that make defection via soiar-plus-battery systems even more attractive and undermine utilities? traditional business models. How soon could this happen? This analysis shows when and where US. customers could choose to bypass their utility without incurring higher costs or decreased reliability. It therefore maps how quickly different regions? utilities must change how they do business or risk losing it. New market realities are creating a profoundly different competitive landscape as both utilities and their regulators are challenged to adapt. Utilities thus must be a part of helping to design new business, revenue, and regulatory models. Our analysis focuses on five representative U.S. geographies (NY, KY, TX, CA, and Hi). Those geographies cover a range of solar resource potential, retail utility electricity prices, and solar PV penetration rates, considered across both commercial and residential regionally-specific load profiles. After considering many distributed energy technologies, we focus on solarnplus?battery systems because the technologies are increasingly cost effective, relatively mature, commercially available today, and can operate fully independent of the grid, thus embodying the greatest potential threat. ROCKY Mot 'Ni HIN THE ECONOMICS OF GRID DEFECTION 5 We model four possible scenarios: Base case?Uses an average of generally accepted cost forecasts for solar?plus?battery systems that can meet 100% ofa building?s load, in combination with occasional use of a diesel generatOr (for commercial systems only] Accelerated technology improvement? Assumes that solar PV and battery technologies experience more aggressive cost declines, reaching or surpassing US. Department of Energy 2020 targets Demand?side improvement?includes investments in energy efficiency and user- controlled load flexibility Combined improvement?Considers the combined effect of accelerated technology improvements and demand?side improvements We compare our modeled scenarios against a reasonable range of retail electricity price forecasts bound by US. Energy Information Administration (EIA) forecasts on the low side and a 3% real increase per year on the high side. FIGURE 1: OFF-GRID VS. UTILITY PRICE PROJECTIONS COMMERCIAL- BASE CASE LCOE Retail LCOE Retail Los Angeles. CA Honolulu. HI .. Louisville. KY Westchester, NY . San Antonio. TX .- $140. $120. $100. $030. $0.5m Hi $Q4o. $0.20 - 201i;l 2018 2022 2025 2030 2034 2038 2042 2046 2050 INSTITUTE EXECUTIVE SUI IMARY The analysis yields several important conclusions: -, - yr; For certain customers, including many customer segments in Hawaii, grid parity is here today. It will likely be here before 2030 and potentially as early as 2020 for tens of millions of commercial and residential customers in additional geographies, including New York and California (see Figures 1 and 2). In general, grid parity arrives sooner for commercial than residential customers. Under more aggressive assumptions, such as accelerated technology improvements or investments in demand- side improvements, grid parity will arrive much sooner (see Figures 3 and 4). i - -- Ouranalysis is based on average load profiles; in each geography there will be segments ofthe customer base for whom the economics improve much sooner. In addition, FIGURE 2: OFF-GRID VS. UTILITY PRICE PROJECTIONS 2012$lkWh] LCOE Retail LCOE Retail LosAngeIes.CA -- Louisville, KY Westchester, NY San Antonio. TX -- . Honolulu. HI $130- stso-g stoo- $030- soso- $0Ao; sozoa $2014 2013 2022 2026 2030 2034 2038 2042 2046 2050 THE ECONOMICS OF GRID DEFECTION 6 EXECUTIVE SUM MARY FIGURE 3: COMMERCIAL PARITY TIMELINE 36' Base Case - Demand-Side Improvements Louisville. KY Los Angeles, CA ATI - Accelerated Technology Improvements Cl - Combined Improvements Westchester, NY Honolulu, HI San Antonio, TX Parity is here already or (2 coming In the next decade ATI .61 "A'lLCI 2015 2020 2025 I 2030 2035 2040 2045 2050 FIGURE 4: RESIDENTIAL PARITY TIMELINE BC - Base Case DSI - Demand-Side Improvements Louisville, KY Los Angeles, CA ATl?Accelerated Technology Improvements Cl Combined Improvements -- - Westchester, NY Honolulu, HI San Antonio. TX Parity Is here already or coming in the next decade ?43?2015 2020 2025 2030 2035 2040 2045 2050 53385}; THE ECONOMICS OF GRID DEFECTION 17 motivating factors such as customer desires for increased power reliability and low?carbon electricity generation are driving early adopters ahead of grid parity, including with smaller grid-dependent solar? plus-battery systems that can help reduce demand charges, provide backup power, and other benefits. Still others will look at investments in solar-plus- battery systems as part of an integrated package that includes efficiency and load flexibility. This early state could accelerate the infamous utility death spiral?self- reinforcing upward rate pressures, making further self? generation or total defection economic faster. The ?old? cost recovery model, based on sales, by which utilities recover costs and an allowed market return on distribution networks, central power plants, andiortransmission lines will become obsolete. This is especially profound in certain regions of the country. In the Southwest across all sold by utilities, for example, our conservative base case shows solar-plus?battery systems undercutting utility retail electricity prices for the most expensive one? fifth of load served in the year 2024; under more aggressive assumptions, off-grid systems prove cheaper than all utility?sold electricity in the region just a decade out from today (see Figure 5). MOUNTRIN INSTITUTE EXECUTIVE SUMMARY Though many utilities see the impending arrival of solar?plus-battery grid parity as a threat, they could also see such systems as an opportunity to add value to the grid and their business models. The important next question is how utilities might adjust their existing business models or adopt new business models?either within existing regulatory frameworks or under an evolved regulatory landscape?to tap into and maximize new sources of value that build the best electricity system of the future at lowest cost to serve customers and society. These questions will be the subject ofa forthcoming companion piece. FIGURE 5: US. SOUTHWEST 2024 SOLAR-PLUS- BATTERY COMMERCIAL SCENARIOS VS. ESTIMATED UTILITY RATE DECILES $0.24 - $020. $0.16- $m2- $0.08 $0.04. $0 ECONOMICS OF GRID DEFECTION I 8 . LI. J'VALUE OF THE GRID TO DG CUSTOMERS IEE Issue Brief September 2013 Updated October 2013 .. INNOVATION . ELECTRICITY EFFICIENCY - An Institute of The Edison Foundation Value of the Grid to DG Customers IEE Issue Brief September 2013 Updated October 2013 Prepared by Lisa Wood IEE Robert Borlick Borlick Associates VALUE OF THE GRID TO DG CUSTOMERS Some advocates of distributed generation (DG) claim that the DG customer derives no benefit from being connected to the host utility’s distribution system.1 While it is easy to say that a DG customer is “free from the grid,” that is simply not true – even for a DG customer (or a microgrid) that produces the exact amount of energy that it consumes in any given day or other time interval.2 This paper describes how a DG customer (or a micro grid) that is connected to the host utility’s distribution system 24/7 utilizes grid services on a continuous, ongoing basis. The point is to recognize the value of these grid services and to develop a methodology for the DG customer to pay for using the services. The utility’s cost of providing grid services consists of at least four components – the typical fixed costs associated with: (i) transmission, (ii) distribution, (iii) generation capacity, and (iv) the costs of ancillary and balancing services that the grid provides throughout the day for the DG customer. There is a related question about how much DG customers should be paid, or credited, for the excess electric energy they produce on-site and inject into the grid. This paper does not explicitly address this “value of on-site energy” issue. THE BENEFITS OF REMAINING CONNECTED TO THE DISTRIBUTION SYSTEM Consider a residential or small commercial customer with solar PV panels on its rooftop. Figure 1 displays a typical hourly pattern of energy production and consumption for such a customer. The green area is the energy delivered by the host utility and consumed by the customer. The area under the blue curve is the energy produced on-site by the solar panels. The area below the blue curve and above the green line is the excess energy injected into the utility’s distribution system. The key take-away from this graphic is that the customer’s consumption and generation are almost never equal; consequently, most of the time the customer is using the external power system to offset the difference between the customer’s consumption of electric energy and its on1 A recent Forbes article, “Distributed Generation Grabs Power from Centralized Utilities,” August 8, 2013, ignores and fails to mention the grid services that are provided to DG customers continuously by the host utility. 2 The term, DG, refers to small retail customers with on-site generation that are net metered. 1 site production. In most cases the customer will be taking energy from the grid during many hours of the day. For example, the customer depicted in Figure 1 takes power from the grid in all hours except from noon to about 4:30 pm. Figure 1: Typical Energy Production and Consumption for a Small Customer with Solar PV 5.00 Customer uses grid to export excess power 4.00 3.00 Utility provides power Kilowatt 2.00 Customer generation, grid support needed Utility provides power 1.00 0.00 1am 2 3 4 5 6 7 8 9 10 11 12pm Consumption 1 2 3 4 5 6 7 8 9 10 11 12am Solar Production Customers with any type of DG that are connected to the grid will be utilizing external grid services to: ▪ balance supply and demand in sub-second intervals to maintain a stable frequency (i.e., regulation service); ▪ resell energy during hours of excess generation and deliver energy during hours of deficit generation; ▪ provide the energy needed to serve the customer’s total load during times when on-site generation is inoperable due to equipment maintenance, unexpected physical failure, or prolonged overcast conditions (i.e., backup service); ▪ provide voltage and frequency control services and maintain high AC waveform quality. Clearly, even if the customer’s total energy production over some time interval (e.g., a monthly billing cycle) exactly equals its consumption over that same interval, that customer is still utilizing at least some, if not all, of the above grid services during that time interval. 2 So what value does a customer with solar PV generation derive from remaining connected to the grid? Let’s begin by examining the charges that a typical residential customer consuming an average of about 1000 kilowatt-hours (kWh) per month [average consumption based on Energy Information Administration (EIA) data and rounded] will pay for grid services, excluding the charges for the electric energy itself. These charges are designed to allocate to the customer its fair share of the fixed costs associated with the transmission system, the distribution system, balancing and ancillary services, and the utility’s (or the retail supplier’s) investment in generation capacity.3 As stated earlier, the electric energy charges designed to recover the cost of the energy (kWh) consumed by the customer (including the associated transmission and distribution losses), are excluded here. Table 1 illustrates these charges for a typical residential customer.4 Table 1 – Non-Energy Charges Paid by a Typical Residential Customer on a Retail Tariff Average Residential Customer: Non-Energy Charges as Percent of Typical Monthly Bill Average Monthly Usage (kWh)* 1000 Average Monthly Bill ($)* $110 Typical Monthly Fixed Charges Ancillary/Balancing Services Transmission Systems Distribution Services Generation Capacity ^ Total Fixed Charges for Customer Fixed Charges as Percent of Monthly Bill $1 $10 $30 $19 $60 55% *Based on Energy Information Administration (EIA) data, 2011 ^The charge for capacity varies depending upon location. This is just an estimate. In this example, the typical residential customer consumes, on average, about 1000 kWh per month and pays an average monthly bill of about $110 (based on EIA data). About half of that bill (i.e., $60 per month) covers charges related to the non-energy services provided by the grid, 3 In “retail choice” states the retail customer can choose its energy supplier, which may not be the utility. In all other states the utility will be the retail supplier. 4 Other charges, such as sales and franchise taxes and environmental charges could be added to the table; however, the focus of this paper is on the grid services that are provided by the host utility. 3 including a charge for generation capacity. Because residential retail rates are almost always designed to recover most of the power system’s fixed costs through kWh charges, a DG customer will avoid paying some or all of its fair share of the fixed costs of grid services. Ultimately the fixed costs that the DG customer does not pay, which are significant, will be shifted to other retail customers. In this example, each DG customer shifts up to $720 per year in costs (i.e., $60 * 12 months) to other retail non-DG customers. To put this into context, if 50 percent of the residential customers in a given utility service territory had DG, the non-DG residential customers in that service territory could experience bill increases of up to 55 percent – from $110 per month to $170 per month. Clearly this cost shift is substantial and simply not fair. IEE submits that DG customers should pay their fair share of the cost of the grid because pushing any of this cost onto non-DG customers raises serious economic efficiency and fairness issues. Indeed this is one of the key issues in the current debate over net metering. To illustrate the value provided by the grid for a solar PV customer, consider what it would cost that customer to self-provide the technical equivalent of these services through some combination of energy storage and/or thermal generation (e.g., a Generac home generator). Preliminary estimates of the monthly costs that a typical residential customer would have to incur to self-provide the balancing and backup services that the grid currently provides are substantially higher than the $60 charge shown in Table 1.5 Furthermore, this cost estimate of self-provision excludes the additional cost of maintaining the level of voltage and frequency control and AC waveform quality currently provided by the grid. An off-the-grid DG customer (or micro-grid) simply cannot provide, at reasonable cost, the same quality of service that a large power system provides. So, in fact, most DG customers remain connected to the grid today and utilize grid services. This straightforward cost comparison to “self providing” grid services reveals three things. First, the balancing and backup services that the grid provides to DG customers are needed and have substantial value. Second, it does not make economic sense for a DG customer to self-provide these services. Third, it is unfair for DG customers to avoid paying for these grid services, 5 The Electric Power Research Institute (EPRI) is developing estimates of the cost of self-providing grid services and expects to release its results in 2014. 4 thereby shifting the cost burden to non-DG customers. Obviously, DG customers should pay their fair share of the cost of the grid services that the host utility provides. ECONOMIES OF SCALE ASSOCIATED WITH POWER SYSTEMS In many ways, the growth of DG and micro grids today goes full circle back to the early days of the electric power industry. Initially power systems were isolated and each served its own service area. As service areas expanded, utilities began to interconnect. PJM was the first entity to interconnect utilities for reliability purposes and to centrally provide balancing services. This evolution was driven by the substantial economies of scale that still exist today as ISO/RTO markets continue to grow and expand.6 These interconnection entities developed for good reasons. When a small power system interconnects with a larger one, all members of the resulting combined entity benefit. However, it has been observed that the small system benefits disproportionately more than the incumbent members. For example, the small system’s operating reserve margin will decrease substantially. This phenomenon is even more pronounced when a micro-grid interconnects with a power system. DG MARKET IS GROWING, PRICING IT RIGHT IS KEY Although net metering was a convenient vehicle for kick-starting the DG market, there are now serious questions among state policymakers regarding its continuation and needed reforms. One main concern, addressed by this paper, is that net-metered customers are avoiding payment of their fair share of the grid services described earlier, thereby causing those lost revenues to be recovered from other customers. As also demonstrated in this paper, these “grid” costs are quite significant – about 55 percent of the monthly electric bill for a residential customer as demonstrated in Table 1. Although this may not have been a major problem when the DG market was in its infancy, sending the wrong price signals to both customers and to the DG industry is a major problem as the DG market rapidly grows and develops. 6 Entergy’s decision to join MISO is a recent example. 5 REVENUE DECOUPLING WILL NOT RESOLVE THE DG COST-SHIFTING ISSUE Revenue decoupling is currently being used to promptly restore utility net revenues that would otherwise be lost due to declining electricity sales resulting from utility investments in energy efficiency (EE). Although revenue decoupling makes the utility whole, it does so by explicitly shifting costs from participating EE customers to nonparticipating EE customers using a public or system benefits charge (which is typically visible and transparent to all customers as a charge on their utility bills). Decoupling causes the same cost shifting problem that is created by DG with net metering. However, a fundamental difference is that the magnitude of the “cost shifting” to non DG customers is on a much larger scale than the cost shifting due to energy efficiency. A recent study revealed that decoupling rate adjustments for energy efficiency are quite small – about 2 to 3 percent of the retail rate.7 In contrast, as described earlier in this paper, a DG customer could shift up to 55 percent of the retail rate onto non-DG customers (and, unlike efficiency charges, which are transparent, the DG cost shifting is essentially invisible to customers). The amount of cost-beneficial energy efficiency is limited because the more you achieve, the less cost-beneficial the next increment of energy savings becomes. This “diminishing return” aspect means that energy efficiency increases only when it makes economic sense. In contrast, no such economic limit applies to DG. In fact, costs – particularly for rooftop solar PV – are expected to decline over time. Although regulators have been willing to accept a relatively limited amount of cost shifting to promote utility investments in energy efficiency (about 2-3 percent of rates, on average), they are unlikely to accept the magnitude of cost shifting that will accompany the rapid expansion in net-metered DG unless some reforms to net metering are put into place.8 ALTERNATIVE APPROACHES TO END COST SHIFTING DUE TO NET METERING Three basic approaches to net metering are under examination across the nation, each of which seeks to ensure that a DG customer using grid services pays its fair share of the costs of those services while still receiving fair compensation for the excess energy that it produces: 7 “A Decade of Decoupling for US Energy Utilities: Rate Impacts, Designs, and Observations.” Pamela Morgan, Graceful Systems LLC. February 2013. 8 Distributed generation and net metering were very hot topics at the Summer 2013 NARUC meetings with at least five panel discussions addressing them. 6 ▪ Redesign retail tariffs such that they are more cost-reflective (including adoption of one or more demand charges); ▪ Charge the DG customer for its gross consumption under its current retail tariff and separately compensate the customer for its gross (i.e., total on-site) generation; and ▪ Impose transmission and distribution (T&D) “standby” charges on DG customers. These three approaches are illustrative and are further described below. Redesign Retail Tariffs (APS Proposal). To address the fundamental issue that a residential customer with rooftop solar should be compensated at a fair rate for the power it exports (sells) to the grid and also pay a fair price for its use of grid services, APS is proposing two options.9 The first option requires the customer to take service under an existing demand-based rate schedule. The demand charge would cover a reasonable portion of the cost of grid services. The second option allows the customer to choose an existing APS rate schedule for its total electric consumption and APS will purchase all of the customer’s rooftop solar generation at market-based wholesale rates. This option ensures recovery of grid services and sends more accurate price signals to DG customers. It is also conceptually very close to what Austin Energy has already put in place. Treat On-site Generation and Consumption Separately (Austin Energy Tariff). Austin Energy has implemented a solar tariff that fully compensates its DG customers for their gross onsite generation while separately charging them for their gross consumption under its existing retail tariff.10 This approach effectively ensures that the cost of grid services are recovered from DG customers while also compensating DG customers for their generation at the utility’s full avoided cost of procuring energy. The Public Utility Regulatory Policies Act (PURPA), under Title II, provides an established precedent for such compensation.11 This approach requires a separate meter for on-site generation. 9 APS conversation, July 2013. 10 Rabago, K.R., The ‘Value Of Solar’ Rate: Designing An Improved Residential Solar Tariff, Solar Industry, February, 2013. Available at www.solarindustrymag.com. 11 Although PURPA only applies to generating resources that are Qualified Facilities (QFs), this condition has not been applied if the customer receives a credit on its electric bill, rather than a monetary payment for its generated energy. 7 Implement T&D Standby Charges for DG Customers (Dominion Tariff). Dominion requires a residential net-metered DG customer with a solar installation whose rated output is greater than 10kW and up to 20kW, to pay a monthly transmission standby charge of $1.40 per kW and a monthly distribution standby charge of $2.79 per kW. However, these standby charges are respectively reduced, dollar for dollar, by the customer’s transmission and distribution charges that are recovered through kWh charges applied to the customer's monthly electricity consumption up to the point where each standby charge is fully phased out. This became effective on April 1, 2012. Dominion also proposed a placeholder for a future generation standby charge, but it was not approved. The Commission ruled that a generation standby charge should be studied and filed in a future proceeding. A FINAL THOUGHT In light of the rapid growth in net-metered DG, it is critical that these customers pay their fair share of the cost of grid services provided to them – and sooner rather than later. Updating net metering policies to put an end to the cost shifting that is occurring today should be done now. 8 About IEE IEE is an Institute of The Edison Foundation focused on advancing the adoption of innovative and efficient technologies among electric utilities and their technology partners that will transform the power grid. IEE promotes the sharing of information, ideas, and experiences among regulators, policymakers, technology companies, thought leaders, and the electric power industry. IEE also identifies policies that support the business case for adoption of cost-effective technologies. IEE’s members are committed to an affordable, reliable, secure, and clean energy future. IEE is governed by a Management Committee of electric industry Chief Executive Officers. IEE members are the investor-owned utilities that represent about 70% of the U.S. electric power industry. IEE has a permanent Advisory Committee of leaders from the regulatory community, federal and state government agencies, and other informed stakeholders. IEE has a Strategy Committee of senior electric industry executives and 30 smart grid techology company partners.   Visit us at: www.edisonfoundation.net/IEE For more information contact: Lisa Wood Executive Director IEE 701 Pennsylvania Avenue, N.W. Washington, D.C. 20004-2696 202.508.5440 lwood@edisonfoundation.net