Technological advancements disrupting the global construction industry Coauthored by Eric Ottinger, Harshit Minglani and Mark Gibson FRICS Ernst & Young LLP 23 March 2020 Technological advancements disrupting the global construction industry Global construction trends and technological advancements The world’s rapid transformation from manual processes to digital technologies is empowering the construction industry. Construction companies are now provided with unprecedented levels of transparency, choice and convenience. With enhanced capabilities, there is an increased demand for higher quality, greater safety and timely completion of projects. This influx of technological solutions is mitigating risks and streamlining the building production process. Digital innovations and megatrends continue to evolve and shape the future of the construction industry. This research provides a high-level overview of the technology landscape and potential future state of the construction industry. It is the first of a series of papers that will focus on three core areas identified herein: 1 2 3 Design oriented digital technologies Industrialized and componentized construction advances Construction automation — supporting work through digitization Realizing the demand IT and software companies have recognized a demand for digitization in the construction industry and are expanding their software offerings to include solutions tailored for many processes. There have been several innovative construction technologies introduced in the last decade, including building information modeling (BIM), project control and scheduling software. Sensors, cameras and drones are being used to monitor project progress and create smarter buildings. Automation is to be found in almost every repetitive process and the industry is seeing a resurgence in industrial manufacturing in order to compensate for declining on-site construction productivity. These evolving technologies have directly impacted construction activities throughout the value chain. Field labor is becoming more productive, project management is having greater oversight and executive staff are obtaining better transparency and reporting. Consequently, as the economy has experienced expansion in the last few years, the construction sector has regained its momentum since the great recession, driven by increased demand for infrastructure and real estate developments. Incorporating and expanding on these technologies allows for more intelligent planning of construction, supply chain management and delivery. 2 23 March 2020 Technological advancements disrupting the global construction industry The construction industry is experiencing technological innovations throughout the project lifecycle, with internet of things (IoT) leading at the forefront. In 2019, the IoT industry was estimated at approximately $270B and is expected to grow at a 26% compound annual growth rate (CAGR) for the forecasted period through 2025.1 3D printing currently holds the smallest market share of the construction industry, however is expected substantial growth at 245.9% CAGR.2 Other technologies, such as blockchain, artificial intelligence (AI) and robotics are also expected to contribute to this growth, at greater than an estimated 30% CAGR. Full-scale digitization may help escalate the construction sector and generate an estimated 1220% in annual cost savings within a decade.³ Construction technologies by market share projected in 2025 Construction industry (USD Billion) Current State (2019) % of global market in 2019 Projected CAGR through 2025 (%) Projected 2025 state % of global market in 2025 BIM 4.90 0.04% 12.70% 10.04 0.07% Digital twin 3.80 0.03% 37.80% 26.07 0.19% AR and VR 1.60 0.01% 21.80% 5.20 0.04% Geo-enabled 5.99 0.05% 31.10% 30.41 0.22% Prefab 115.90 1.04% 5.96% 164.03 1.18% Modular 121.30 1.08% 6.90% 181.02 1.30% 0.003 0.00% 245.90% 0.51 0.00% Robotics 0.03 0.00% 38.86% 0.23 0.00% RPA 0.78 0.01% 31.10% 3.90 0.03% Facial recognition 3.20 0.03% 16.60% 8.16 0.06% AI 0.55 0.00% 35.10% 3.30 0.02% Blockchain 0.39 0.00% 41.40% 3.12 0.02% 269.89 2.41% 26.00% 1,080.00 7.76% 31.60% 59.21 0.43% 3D printing IoT Smart buildings 11.40 0.10% Sources: Pitchbook³, Grand View Research , Market Watch , Research and Markets , Robotics Business Review7, Markets and Markets2,8 4 5 6 Numbers above were extrapolated from external sources 23 March 2020 3 Technological advancements disrupting the global construction industry Design oriented digital technologies Building information modeling (BIM) Utilizing BIM has become the most commonly used technology in the construction industry, from design through project completion and operation. 73% of US contractors surveyed by Dodge Data & Analytics reported utilizing BIM, with 79% of those using it on more than 30% of their projects.9 BIM is the process and digital representation used for modeling and management of the physical and functional characteristics of a construction project or facility. It is a shared knowledge resource for information about a facility, forming a reliable basis for decisions during its life-cycle; with the possibility of existing from earliest conception to decommissioning.10 BIM can be applied to create 3D models, and has evolved to additional dimensions, including schedule (4D), cost estimating (5D), sustainability (6D) and operations maintenance (7D). It affords a number of benefits, such as more effective design, enhanced coordination, a reduction in change orders and a more efficient construction process overall. During design and construction, BIM offers savings in cost and time, gains in accuracy and reduction in errors and rework. The estimated savings of total project cost using BIM is typically between 4% to 6%.10 Critical information can be input to the digital BIM at the earliest phases of design and planning. BIM allows engineers to easily analyze alternative scenarios and visualize the entire planned sequence of the project. This limits waste and allows products to be delivered closer to a just-in-time model rather than being stock piled onsite. Because of this, BIM can directly compliment prefab design, supply chain management and project installation by allowing owners and contractors to identify impacts to multiple project elements. As the dimensions of BIM have evolved, it has become a critical input to digital twins. Digital twin One of the latest trends in the construction industry is creation of a digital twin to enable simulation and predictive analytics. The digital twin enables convergence of the physical and virtual world, where every process, product or service is represented by producing a digital replica of a physical asset or living entity. 4 23 March 2020 Technological advancements disrupting the global construction industry Digital twin roadmap 1) Design 2) Development and testing 3) Setup and deployment Data simulations augment missing data 2 Data capture in Data simulations and real-time data informs CIM Data optimization Inputs and fault detection 1 3 Predictive analysis informs operation and controls Digital Twin: Campus Information Model (CIM) Generate Campus Information Model (CIM) 6 4 ML and AI processes improve operations over time Digital model commissions physical building ROI analysis and selections Data calibration drives continuous improvement Synthesized data out 5 Data reset creates continuous Improvement Data capture and simulation 4) Fine tuning and analysis 5) Seamless data aggregation This allows analysis of data and monitoring of systems to identify and resolve problems before they occur, prevent downtime, develop new opportunities and plan for the future by utilizing simulations. By reconstructing an as-built state of a structure in BIM, we can then compare it to as-planned execution and take corresponding actions to correct any deviations. Digital twin building simulations can be used to assess the energy demand, indoor environmental quality, carbon emissions and payback periods of energy management systems over the lifetime of an asset. Once the building is operational, a digital twin can notify the user of maintenance malfunctions, such as a light going out in a fire stairwell. The manager can then check the visual representation to locate the exact positioning of the bulb and the best access route. Strategic benefits will also include automated progress monitoring, facilities management, root cause analysis, intelligent recommendations, self-tuning, predictive maintenance, 3D databases of reflective virtual asset information, data collection for AI systems, data storage and historical recall. Augmented and virtual reality Technologies like augmented reality (AR) and virtual reality (VR) have enabled construction companies, investors and customers to visualize elements of the design, build and post-construction phases of their projects. AR is a live, direct or indirect view of a physical, real-world environment whose elements are ‘augmented’ by computer-generated sensory input, such as sound, video, graphics or GPS data. VR is an artificial environment that is created with software and presented to the user with a virtual model of the real world. VR therefore allows for isolation of the user during prototyping. 2D, CAD and BIM plan sets can 23 March 2020 5 Technological advancements disrupting the global construction industry be transformed into a fully immersive augmented and virtual reality, providing a virtual 3D overlay view of buildings and interiors. This allows stakeholders to obtain an improved understanding of what is to be built, along with visibility of spatial mapping. Additionally, it can increase customer and investor satisfaction by allowing a greater degree of input in the initial planning and design phase. Providing full emersion allows for stakeholders to increase accuracy in projections, optimize training, identify risks and increase safety before the construction process begins. Subsequently, it can increase reliability while decreasing margin of error. Usability can consequently be improved earlier than the traditional process of utilizing plan sets. Geo-enabled technologies Geo-enabled technologies have unlocked the potential of location data to drive informed decision-making, process standardization and efficiency. These technologies utilize cameras and sensors to obtain data, measurements and quantities over the lifecycle of a project. Drones, also known as unmanned vehicles or remotely piloted aircraft, are becoming increasingly popular to provide onsite digital asset tracking, continuous spatial inspection and progress monitoring. Having the ability to capture broad-scale aerial photography and send real-time images, video and data to computers or mobile devices is expected to be used for simulating a construction environment to test scenarios and facilitate evidence-based decision making. Such deployment promotes faster planning, construction work and site safety. In the UAE, contractors are extensively using drones for monitoring and inspecting sites. In a labor deficient Japan, Komatsu Ltd. began using drones that create 3D maps, extract blueprints and simulate construction plans. The future of drones on a construction site will help enhance analytics, schedule management, labor efficiency and promote waste reduction. 360-degree cameras can provide monitoring for enclosed rooms and buildings. These cameras are providing assistance with waste reduction and tracking materials, equipment and inventory. This technology is also advancing toward labor productivity tracking and precise real-time spatial measurements. Suffolk Construction has integrated image recognition software with automated monitoring capability to recognize construction risks and hazards. Cameras eventually may be used in optimizing cost management and holding contractors accountable for design, materials, labor and potential change orders. Sensors have also become increasingly popular. Gilbane Construction Company has recently adopted a system of wearable sensors that enables management to analyze construction operations and productivity in real-time. Utilizing these sensors alongside GPS diagnostics, work can be monitored remotely to help enhance productivity. 6 23 March 2020 Technological advancements disrupting the global construction industry Industrialized and componentized construction advances Digitally-enhanced manufacturing of componentized buildings With a heightened focus on efficiency and faster building methods, industrialized construction (prefabrication and modular) is on a growth path and the trend is emerging across the globe. According to a survey conducted by Commercial Construction Index, “nearly half (45%) of contractors currently using prefabrication and modularization techniques have seen increased use in the last three years.9 The industrialized approach shifts many construction activities away from the site and allocates these tasks to a factory. Preassembled building components and modules are then shipped to the construction site for assembly. While these are not new concepts, opportunities have compelled developers and contractors to apply prefabrication with technological innovation to their projects. Pursuing this strategy helps overcome construction challenges, including speed of delivery, economic viability, quality and enhancing environmental sustainability. Many construction companies are applying digitization to prefab and modular. This will drive further momentum and may eventually lead to the emergence of one or two market leaders in this space. Technology is a dominant theme as it continues to reshape conventional property uses, while transforming the back office and construction supply chain. Many of these technologies addressed in this paper, such as drones, 3D printing, robotics, AI and IoT, are expected to provide substantial improvements to industrialization and construction productivity. The continued impact of disruptive forces — from changing customer behavior to technology initiatives, changing demographics and growing competition from non-traditional players like startups and technology-based businesses — is leading to continued and advancing change. It seems likely that, over time, componentized or industrialized construction will become the dominant solution in the industry for certain asset types, such as multifamily and commercial. 3D printing Also referred to as additive manufacturing, 3D printing digitally creates successive layers of materials to produce three dimensional objects from a digital file. 3D printing has evolved to be a natural fit within the industry, usable for a variety of suitable materials (notably polymers, metals, ceramics and concrete) and providing almost limitless freedom of flexible design. 23 March 2020 7 Technological advancements disrupting the global construction industry Realizing reduced costs associated with fabricating complex shapes provide less constraints on architects and designers. Emerging opportunities include printing piping and fittings, tools and equipment, formwork for concrete, structural insulated panels, walls with embedded MEP systems and roofs with solar tiles. 3D printing is especially valuable for prefab and modular construction. With the large majority of prefab construction work done in a factory, it becomes more feasible to add a 3D printer to the production lines. A 3D printer has the ability to print complete components and modules (integrated with insulation and MEP) that will eventually be shipped to the construction site. Internationally, 3D printing has evolved to printing complete houses and offices. In 2014, Winsun, a Chinese company founded by inventor Ma Yihe, built 10 houses of 200sqm in a day using an industrial-scale 3D printing machine. Most recently, MX3D created a 41-foot smart bridge from 3D printing technology utilizing metal alloys. Reduction in construction time, human surveillance and environmental impact suggest that 3D printing will continue to become more prevalent. Physical robots Robotics that allow complex physical tasks to be performed with minimal human intervention are becoming more common in the construction industry. There has been extensive development of methods to automate various trades. Robotics are being utilized for bricklaying, welding and concrete pouring. Employing robots to perform typical human labor provides construction efficiencies, precision, reduced human labor and enhanced safety. Similar to 3D printing, utilizing robots in a prefab factory can be highly effective. Robots have been contributing to production lines of manufacturing industries for decades, performing repetitive tasks more efficiently and with greater accuracy than humans. Some prefab construction companies are exploring robotic capabilities and have begun implementing them in their production factories. Present initiatives indicate that fully autonomous factories, logistics, transportation, and eventually the complete supply chain, may be completely automated with robotics. 8 23 March 2020 Technological advancements disrupting the global construction industry Construction automation — supporting work through digitization Robotic process automation (RPA) RPA is one form of automation, commonly used for boring, repetitive and mundane tasks. Automation takes a current or modified process and enhances this via the use of digital tools, enabling machines (computers) to undertake the work previously executed by humans. It improves speed, accuracy, consistency and cost of executing these routine tasks. RPA can change project controls and tasks related to project finance. For example, financial forecasts may no longer require manual entries in Excel. Instead, the robots (a ‘bot’ or ‘program’) can collect data from multiple systems, while algorithms build forecasts based on past and present data (using predictive analytics). A computer software program that operates repetitively with rule-based processes, RPA replicates and collaborates with the actions of a human being, interacting with the user interface of a computer system. The software is trained to connect multiple fragmented systems with automation and is based on functional specifications that can be adjusted. Given a renewal of the existing IT landscape is not required, a high level of automation that collects and transforms data can be reached with minimal effort. The software then allows the capture and interpretation of a business process in a repetitive, audited and controlled manner. Subsequently, business and administrative processes can be fully automated and programmed by a computer to monitor and reduce costs, save time and enhance reporting. Briq has developed RPA programs with bots to track and record city council meeting minutes and permitting issuances across municipalities. Users receive weekly ‘intent to build’ scores for the metro area, along with market updates and forecasts. This allows for real-time information to be shared with developers who look to capitalize on investment opportunities from a recent entitlement or rezoning. EY teams have recently created Payment Application Managed Service (PAMS), a digitally automated back of house support solution. PAMS is a cost-efficient construction and facilities management invoice processing solution for clients with large owned or leased real estate or infrastructure portfolios. 23 March 2020 9 Technological advancements disrupting the global construction industry Successful digital transformation of a company’s payment application and processing leads to internal procedures being automated and therefore saving costs, improving controls and enhancing transparency. PAMS has had many success cases, including automating 72% of payment processes for a global company and reducing the processing time from 60 to 7 days. This client experienced 40% processing cost savings and 9% lower total costs for all of their payments. RPA and other forms of automation can supplement typical human tasks, reduce error rates, enhance controls and eliminate redundant and repetitive tasks. This may help address some of the skill shortage being experienced by construction in the competitive labor market. Facial recognition and biometrics Facial recognition captures graphical information using multiple data points like distance between the eyes and facial curves that are unique to individuals. The information is stored utilizing an algorithm in a database. When accessed, the system scans and matches the facial information by applying it to the algorithm. Current investment by owners, developers and contractors include facial recognition to enhance safety at the construction site, access control and productivity monitoring. Using facial recognition, site access is restricted to workers and authorized personnel. Contractors are also able to use the data from facial recognition as backup for invoicing. In 2019, the global facial recognition market was projected to grow from $3.2B to $7.0B by 2024, at a CAGR of 16.6%.8 As the technology progresses, it can potentially change the landscape of physical security, payroll systems, project controls and resource optimization, helping to reduce cost and enhance control. Facial recognition is currently saving Health and Safety International’s building services contracts £140,000 per year.11 Artificial intelligence (AI) The global AI construction market is also forecasted to grow substantially, from $407.2M in 2018 to $1.8B by 2023, at a CAGR of 35.1% 3. AI is a label given to computing systems that exhibit the ability to perceive information, retain it as knowledge, and apply it to making decisions. AI may also interact in ways that seem natural to humans, while simultaneously learning from those interactions by utilizing machine learning. Supported by vast amounts of accessible data, advances in AI have allowed for improved learning algorithms that enable the extraction of deeper levels of meaning. AI can drive productivity improvements as the systems augment human skillsets and reduce the need for tedious human effort. The rising demand for AI- and machine learning-based solutions, the increasing need for greater safety and the ability to reduce production costs are all expected to drive the growth of AI in the construction sector. Current AI efforts include project schedule optimization through historical data, identifying unsafe worker behavior through image recognition and classifying signals and patterns to deploy real-time solutions. This allows AI to prioritize preventative maintenance and prevent unplanned downtime through enhanced analytical platforms. As this technology progresses, it will optimize project supply chains by tracking and analyzing complex data, such as providing the ability to employ artificial neural networks to predict cost overruns. 10 23 March 2020 Technological advancements disrupting the global construction industry Blockchain Blockchain helps provide the construction supply chain increased functionality, efficiency and visibility. Blockchain is an open public database where transactions are stored in virtual blocks. These blocks are connected together in a chain, creating a complete history of all transactions that have occurred within a particular network. Blockchain has the potential to encrypt and protect key elements in construction operations and supply chains. This technology could potentially handle all contractual relationships using concepts like smart contracts and electronic verification. Blockchain-enabled distributed ledgers can enable better transparency and accountability in construction projects by addressing scope creep, contract changes and elimination of waste to reduce costs. A grouping of smart contracts can be used to create a decentralized autonomous organization (DAO) that is operated by rules encoded as computer programs. Smart contracts executed between the client and the contractor will enhance the design, tender, install, monitoring, certification and handover of the built asset. By integrating blockchain, a construction company or building maintenance system could function by a project or building’s DAO placing an order for products and services. Materials are tracked in an undisputable blockchain ledger and the DAO accepts delivery. Once the DAO calls out a contractor to install the material, smart contracts release payments as materials and services achieve milestones. Should milestones or thresholds be missed indicating reduced fees, the automated system would send alert and recommend course correction. Lastly, the DAO would make final payment to both the supplier and installer from the owner’s bank account. The DAO could enhance rent collection, corporate expenditures and insurance payments with autonomous management. 23 March 2020 11 Technological advancements disrupting the global construction industry Internet of things (IoT) IoT enables the connectivity of assets and big data analytics, providing new insights for project teams by capturing large amounts of reliable data in real-time. IoT is the network of physical devices, such as components, appliances, equipment, buildings and vehicles embedded with electronics, software, sensors, actuators and network connectivity, enabling these objects to collect and exchange data over the internet. Combining the features of telematics, asset management and connected BIM, along with using radiofrequency identification and tracking devices, could lead to highly increased efficiencies. The benefits of IoT span across the entire lifecycle of a project and promote sustainable, whole life costing. Throughout the entire life cycle, machine learning will continue to recognize opportunities and provide analytics and recommendations to maximize productivity. Emerging opportunities include installing meters and monitors at the beginning of construction to analyze output (energy, utilities, labor, etc.) and optimize visibility supply chain interaction and site conditions. IoT enables green buildings to complete tasks, such as shutting down unnecessary systems when the building is unoccupied and opening and closing louvers automatically to provide optimal levels of natural light. Predictive maintenance programs can also be established with IoT. When fitted with sensors, construction equipment can automatically send notice if any abnormal patterns are detected. This alerts workers to intervene early to avoid critical down time or further damage. Smart buildings to smart cities IoT is the basis and overarching framework for smart buildings, providing a key enabler of new business models for commercial real estate. With building automation and IoT centralizing control and integrating all systems in a building (heating, ventilation, lighting, etc.), it augments the complete project life cycle and establishes the business case for smart buildings. Smart buildings are constructed to provide autonomous improvement strategies and recommendations (utilizing AI, RPA and machine learning) that enhance the well-being and productivity of users while simultaneously saving operational costs and increasing building efficiencies. 12 23 March 2020 Technological advancements disrupting the global construction industry Building managers are looking at smart buildings to analyze space users’ needs and move beyond the traditional lessor/lessee relationships. Smart buildings are planned to transform the business model and create real estate as a customer service platform. The customer service platform leverages data, machine learning and integrated building infrastructure to significantly enhance the user experience. To enable the transformation of a smart building requires a deep understanding of tenants, usage and occupancy patterns, as well as driving more information from building management systems — all of which can be explored through various smart building technologies. Smart buildings integrated with real-time continuous calibration The complete building performance and asset life cycle Step 1: Design solutions integrated into construction through BIM Step 2: Construct buildings using 3D printing and prefabrication to increase efficiency Step 3: Integrate IOT into construction and building operations Step 4: Data acquisition through IOT Step 5: Prefabricated structures transported to construction site by autonomous semi-truck and assembled using robots Process reset Step 12: Perform continuous performance improvement on calibrated models, simulate to forecast next time-step and automate maintenance regiment building historical digital data library Step 6: AI/RPA automate data acquisition, manipulation and optimization Step 7: Advanced calibrated operational models identify improvement opportunities using fault detection and diagnosis Step 11: Building design models utilize life cycle data with on-going improvement decisions in real-time Step 10: Asset management algorithms detect optimization opportunities Step 9: Components optimized to improve building operations Step 8: Digital twin monitors building operations Created in collaboration with Todd C. Lukesh and Ernst and Young12 New technologies, such as Tesla’s battery packs and solar roof tiles can be incorporated into smart buildings to enhance energy efficiency and enable the building to be net zero. Net zero establishes that the total amount of energy consumed by a building is roughly equal to the amount of energy created on-site. With a battery pack and solar roof tiles, buildings are now able to become completely net zero, create and store additional energy, which can allow a building to remove itself from the traditional power grid. Surplus energy can then be sent back to the power grid and require the owner to be compensated. Smart buildings will consistently analyze energy consumption and determine its distribution during operations. 23 March 2020 13 Technological advancements disrupting the global construction industry Conclusion — implementation of ConTech and PropTech The globalization of capital, emerging technologies and changing demographics require the real estate and construction sectors to rethink traditional paths to successful management of the built environment. To remain competitive, companies must explore new structuring options, improve the efficiency of operations and balance portfolios to maximize return on investment — all while mastering digital disruption and gaining a deeper understanding of customer preferences. To create a successful digital strategy that will maximize chances of long-term success, firms should first challenge its strategic direction, and then define the future state of the organization that will create lasting value. Only 25% of real estate and construction firms have a digital strategy and only 9% feel they are prepared for the digital revolution.13 A key factor in this lack of progress is the minimal profit margins systemic within the industry. Construction firms typically have profit margins of 2-3% compared with an average of 20% in other industries. When profit margins are narrow, spending 1% of revenue on digital upgrades and innovation can seem like a heavy and risky investment; however, failing to invest in solutions that could boost output is counterproductive. The most innovative will invest and gain a critical strategic advantage over the rest. The World Economic Forum estimates that a 1% rise in productivity could result in savings of $100B per year in the construction industry.14 Additionally, many studies have recognized that the industry wastes up to 30% of all capital injected, an unsustainable situation in the long term. We expect a few, digitally focused, construction and real estate organizations to take on these challenges and to subsequently dominate the global market in the second half of the century. New technologies and market competitors continue to emerge. The rapid evolution of construction and real estate technologies emphasizes that those who act fast and decisively, embrace disruption, and focus on achieving long-term flexibility will emerge as the leading organizations in the future. Companies should include digital in every aspect of their operations in order to achieve maximum data-driven insight. This will enable them to identify new opportunities and threats across their value chains. With technological innovation quickly expanding, now is the time to embrace disruption, use change to enhance productivity and efficiencies, and prepare for the progressive digital evolution within the construction industry. 14 23 March 2020 Technological advancements disrupting the global construction industry Coauthors Mark Gibson mark.gibson@ey.com Mark is a Partner with EY and the leader of the America and Western Region of EY’s Construction and Real Estate Advisory practice. Mark has over 30 years of experience in construction, development and corporate real estate. He has managed over $14B and been associated with over $35B worth of construction projects. He holds a Master of Science in Construction Project Management and is a Fellow of the Royal Institution of Chartered Surveyors and a Project Management Professional. Mark sits on The Real Estate Roundtable where he advises US policy makers (Congress, President). Eric Ottinger eric.m.ottinger@ey.com Eric Ottinger is a Manager in the Construction and Real Estate Advisory Services practice of Ernst & Young LLP. Eric has over eleven years of experience in construction management, project management and program management including entitlements, preconstruction planning, budgeting, cost control, scheduling, execution, monitoring and controlling, and project close-out. He holds a Master of Science in Finance and a Master of Science in Strategy & Organization, is a certified Project Management Professional and an Associate of the Chartered Association of Building Engineers. Harshit Minglani Harshit.minglani@gds.ey.com Harshit is a Senior Consultant in the Internal Audit practice of EY GDS. Harshit has over three years of experience in risk-based process reviews, internal audits, project management, construction management, internal controls, business process improvements and data analytics. He holds a Master of Business Administration in Finance and International Business. He has worked on processes across the construction project life cycle including planning, execution, monitoring and project close out. Contact Erin Patrick Roberts erin.roberts@ey.com As EY’s global leader of Engineering and Construction, Erin has a breadth of experience serving a diverse roster of public companies in the construction, engineering, oilfield service and manufacturing industries. He holds a Bachelor of Science in Accounting and Finance and has served as EY’s representative on the Financial Issues Committee of the Associated General Contractors of America, is on the organizing board for the AICPA Construction Conference, is a member of the American Road & Transportation Builders Association and the Houston Chapter of the Associated Builders and Contractors. 23 March 2020 15 Technological advancements disrupting the global construction industry References 1 “Internet of Things (IoT) Market by Software Solution (Real-Time Streaming Analytics, Security Solution, Data Management, Remote Monitoring, and Network Bandwidth Management), Service, Platform, Application Area, and Region — Global Forecast to 2022”, Markets and Markets website, https://www.marketsandmarkets.com/Market-Reports/ internet-of-things-market-573.html, accessed 5 December 2019, © 2019 Markets and Markets. 2 “3D Printing Construction Market worth $1,575 million by 2024, Markets and Markets website, https://www. marketsandmarkets.com/PressReleases/3d-printing-construction.asp, accessed 15 November 2019, © 2019 Markets and Markets. 3 “Pitchbook”, Pitchbook website, https://pitchbook.com, accessed 29 October 2019, © 2019 Pitchbook Data. 4 “Robotic Process Automation (RPA) Market Size, Share & Trends Analysis Report By Type (Software, Service), By Application (BFSI, Retail), By Organization, By Service, By Region, And Segment Forecasts, 2019 — 2025”, Grand View Research website, https://www.grandviewresearch.com/industry-analysis/robotic-process-automation-rpa-market, accessed 5 December 2019, © 2019 Grand View Research. 5 “Smart Building Market Expected to Grow at CAGR 31.6% and Forecast to 2025”, Market Watch website, https://www. marketwatch.com/press-release/smart-building-market-expected-to-grow-at-cagr-316-and-forecast-to-2025-2019-09-18, accessed 5 December 2019, © 2019 Market Watch. 6 “Global Blockchain in Construction Industry Databook Series (2016-2025) — Blockchain Spending in 15 Countries with 13+ KPIs, Market Size and Forecast Across 6+ Application Segments, Type of Blockchain, and Technology (Applications, Services, Hardware)”, Research and Markets website, https://www.researchandmarkets.com/reports/4659330/ global-blockchain-in-construction-industry?utm_source=BW&utm_medium=PressRelease&utm_code=59753p&utm_ campaign=1314235+-+Blockchain+in+the+World+Construction+Industry%2c+2016-2019+%26+2025&utm_ exec=joca220prd, accessed 5 December 2019, © 2019 Research and Markets. 7 “More than 7,000 Robots Will Work in Construction by 2025”, Robotics Business Review website, https://www. roboticsbusinessreview.com/construction/more-than-7000-robots-will-work-in-construction-by-2025-report-says/, accessed 5 December 2019, © 2019 WTWH Media. 8 “Facial Recognition Market by Component (Software Tools (2D Recognition, 3D Recognition, and Facial Analytics) and Services), Application Area (Emotion Recognition, Access Control, and Law Enforcement), Vertical, and Region — Global Forecast to 2024”, Markets and Markets website, https://www.marketsandmarkets.com/Market-Reports/facialrecognition-market-995.html?gclid=EAIaIQobChMI1vTX-Myo6AIVVSUrCh0BAQMjEAAYASAAEgK2pfD, accessed 20 March 2020, © 2020 Markets and Markets. 9 USG Corporation and U.S. Chamber of Commerce, “Q1 2018 Commercial Construction Index,” US Chamber of Commerce website, https://www.uschamber.com/sites/default/files/q1_2018_cci_2-28_final.pdf, accessed 29 October 2019, © 2018 Dodge Data Analytics. 10 “Frequently Asked Questions About the National BIM Standard — United States,” National Institute of Building Science website, https://www.nationalbimstandard.org/faqs#faq1, accessed 29 October 2019, © 2019 National Institute of Building Sciences. 11 “Aurora Facial Recognition System Saves £140,000 a Year”, Health and Safety International website, https://www. hsimagazine.com/press-release/aurora-facial-recognition-system-saves-140000-a-year/, accessed 20 March 2020, © 2020 HIS 16 23 March 2020 Technological advancements disrupting the global construction industry 12 “Smart buildings integrated with real-time continuous calibration, The complete building performance and asset life cycle”, Todd C. Lukesh and Ernst and Young LLP. 13 Kaspar, Mark, “Can digital secure the foundations of construction?”, EY website, https://www.ey.com/en_gl/real-estatehospitality-construction/can-digital-secure-the-foundations-of-construction, accessed 29 October 2019, © 2019 EY. 14 World Economic Forum website, https://www.weforum.org/reports/, accessed 29 October 2019, © 2019 World Economic Forum. 15 “2017 The 6th Annual Construction Technology Report,” JBKnowledge website, https://jbknowledge.com/wp-content/ uploads/2018/10/2017-JBKnowledge-Construction-Technology-Report.pdf, accessed 29 October 2019, © 2017 JBKnowledge Inc. 16 “AR and VR Display Market by Device Type (AR HMD, VR HMD, HUD, Projector), Technology (AR, VR), Application (Consumer, Enterprise, Commercial, Healthcare, Aerospace & Defense), Display Trends, and Geography — Global Forecast to 2024”, Markets and Markets website, https://www.marketsandmarkets.com/Market-Reports/ar-and-vr-displaymarket-180787629.html, accessed 15 November 2019, © 2019 Markets and Markets. 17 “Building Information Modeling Market by Type (Software, Services), Application (Buildings, Civil Infrastructure, Industrial, Oil & gas), End-User (AEC, Contractors and Facility Managers), Project Lifecycle, and Region — Global Forecast to 2024”, Markets and Markets website, https://www.marketsandmarkets.com/Market-Reports/building-information-modelingmarket-95037387.html, accessed 12 November 2019, © 2019 Markets and Markets. 18 “Digital Twin Market worth $35.8 billion by 2025”, Markets and Markets website, https://www.marketsandmarkets.com/ PressReleases/digital-twin.asp, accessed 5 December 2019, © 2019 Markets and Markets. 19 “Energy Efficiency: Buildings The global exchange for energy efficiency policies, data and analysis”, IEA website, https:// www.iea.org/topics/energyefficiency/buildings/, accessed 29 October 2019, © 2019 IEA. 20 “Engineering News-Record (ENR)”, ENR website, https://www.enr.com/, accessed 29 October 2019, © 2019 BNP Media. 21 “Geospatial Imagery Analytics Market by Type (Imagery Analytics, Video Analytics), Collection Medium (GIS, Satellites, UAVs), Vertical (Defense & Security, Insurance, Agriculture, Healthcare & Life Sciences), and Region — Global Forecast to 2022”, Markets and Markets website, https://www.marketsandmarkets.com/MarketReports/geospatial-imagery-analytics-market-221633264.html, accessed 15 November 2019, © 2019 Markets and Markets. 22 Gruszka, Alex “Digital Foundations How Technology is Transforming Australia’s Construction Sector,” StartupAUS, 8 October 2019. 23 23. “Precast Concrete Market worth $146.13 billion by 2027”, Markets and Markets website, https://www.marketsandmarkets.com/ PressReleases/prefabricated-construction.asp, accessed 12 November 2019, © 2019 Markets and Markets. 24 Zhao, Linlin, Zhansheng Liu, and Jasper Mbachu, “Development of Intelligent Prefabs Using IoT Technology to Improve the Performance of Prefabricated Construction Projects,” MDPI website, https://www. mdpi.com/1424-8220/19/19/4131/htm, accessed 29 October 2019, © 2019 Linlin Zhao, Zhansheng Liu, and Jasper Mbachu. 23 March 2020 17 EY Assurance Tax Transactions Advisory About EY EY is a global leader in assurance, tax, transaction and advisory services. The insights and quality services we deliver help build trust and confidence in the capital markets and in economies the world over. We develop outstanding leaders who team to deliver on our promises to all of our stakeholders. In so doing, we play a critical role in building a better working world for our people, for our clients and for our communities. EY refers to the global organization, and may refer to one or more, of the member firms of Ernst & Young Global Limited, each of which is a separate legal entity. Ernst & Young Global Limited, a UK company limited by guarantee, does not provide services to clients. Information about how EY collects and uses personal data and a description of the rights individuals have under data protection legislation is available via ey.com/privacy. For more information about our organization, please visit ey.com. © 2020 EYGM Limited. All Rights Reserved. EYG no. 001629-20Gbl ED None This material has been prepared for general informational purposes only and is not intended to be relied upon as accounting, tax or other professional advice. Please refer to your advisors for specific advice. ey.com