providing the highest quality of life with the lowest environmental footprint. A Sustainable City What is Masdar City? 100% Renewable Energy

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1 September 10 Most Sustainable City

2 What is Masdar City? A Sustainable City providing the highest quality of life with the lowest environmental footprint. 100% Renewable Energy Zero Waste Net Zero Carbon Fossil Fuel Free Zone

3 What is Masdar City? Initiative of the Leadership of the Emirate of Abu Dhabi Site area: 700 hectares / 7 Sq/KM Mixed use city Population: 40,000 residents = 90,000 people 50,000 commuting

4 Abu Dhabi Saadiyat Island (Louve) (Guggenheim) Khalifa City Yas Island (Formula 1) Abu Dhabi Airport MASDAR

5 Agenda What makes Masdar City Unique?

6 Traditional Arabic City Design Fez Narrow streets Natural shading High Density /Low Rise Living Public spaces Mixed Use Walkable

7 People and Community High Density / Low Impact Public Squares Mixed Use Development

8 Sense of Place Quality of Place Research and Learning Architecture p8

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10 Life in Masdar City Masdar HQ Exterior p10

11 Life in Masdar City Masdar HQ Interior p11

12 Life in Masdar City Civic Square p12

13 Life in Masdar City Streetscapes p13

14 Life in Masdar City Terrace p14

15 What makes Masdar City Unique? Renewable Energy The City will be powered with Renewable energy Building Design Building design will ensure the latest use of energy efficient technologies and smart design Innovative Transportation System The City will contain pioneering public transportation systems Recycling / Waste to Energy The City will strive towards a zero waste objective Masdar Institute A graduate-level, research-driven institution in partnership with MIT p15

16 Design of a conventional city Energy Building Design Generation Waste Transportation Conventional Oil & Gas Landfill Fossil fuel 80% 13% 7% 1,100,000 Tonnes CO2

17 Design of Masdar City Building Design Waste Energy Generation Transportation Energy Efficient Recycling / Renewable Waste to Energy Electric / Solar -56% -24% -12% -7% -1% Carbon offsetting / Carbon Sequestration = 0 CO2

18 Energy 100% Powered by Renewable Energy 170MW from Photovoltaic <30 KWh per capita per day energy usage (9x LESS than USA)

19 100% Renewable Energy Solutions Concentrated Solar Power (26%) Evacuated Thermal Tube Collector (14%) Waste to Energy (7%) Photo Voltaic (53%)

20 MASDAR Water Strategy Reduce consumption to <80l/p/d Recycle 90% of grey water Reduce water leakage to 3% p20

21 Bundled projects scenarios Onsite vs Regional On-Site Scenario: Game Changing Issues: Green Buildings Regional Scenario: Study for On-Site Groundwater use Hydro Study re GW Volume ADDC Water Supply Seawater or Off-Site GW supply w/ on-site desalination Brine Treatment and Reuse Meets WtE Demand Geothermal Resource On-site Desalination Greywater Recycling Misses Regional Waste for 10 MW WtE CSP from Small Square Local Waste for 3 MW WtE PRT vs. Metro Small Square Timing

22 On-Site scenario description 3000 On-Site Scenario Electrical Supply vs. Demand Base Projects & Primary Projects Dry MRF + In-Vessel Composting Biomass burner construction wood waste Waste minimization and AWCS Alternative water options-dew/fog collector Reduce undercroft lighting and ventilation Reduce non-resident building electrical load Geothermal energy + pumping to demand Reduce street lighting load Add 1 MW PV ground mount to 10 MW farm Eliminate blackwater treatment electrical load use biogas from anaerobic digestion Reduce water distribution energy load Water supply from seawater or groundwater RO desalination plant on-site Flora/Fauna/Wildlife/People optimization Secondary Projects Install 3 MW WtE for non-recyclables Increase rooftop PV generation + cleaning develop recycle market Study on-site hyper-saline ground water Brine treatment and reuse of products Increase CSP electrical/thermal cooling ratio Increase electrical distribution efficiency Reduce ICT and PRT demand % Energy gap compare to 44% gap for 10% better than AD reference results MWh/day % Energy gap compare to 31% gap for demand < 40% AD reference w/roadmaps May-08 Nov-08 May-09 Nov-09 May-10 Nov-10 May-11 Nov-11 May-12 Nov-12 May-13 Nov-13 May-14 Nov-14 May-15 Nov-15 May-16 Nov-16 May-17 Nov-17 Months Baseline Demand 10% AD Reference Onsite Electric Supply Current Onsite Demand Current Baseline Demand Use Seawater or Off-Site Ground Water for potable water w/green Power at intake or well location On-site Desalination, Brine Management & Reuse All Energy Projects in top 31 ranked Roadmaps CH2M HILL Proprietary - Reuse Prohibited September 10 p22

23 Onsite cost-benefits: demand comparisons Projected Demand <40% of AD reference Demand <10% of AD reference Scenario 1 Energy % E Gap Scenario 1a Energy % E Gap Biodiversity 0 Water Biodiversity 0 Water 30% B Gap 0% W Gap 0% W Gap 30% B Gap Waste Waste Goal Scenario 1 Goal Scenario 1a Develop & Strategy Investment = $46 million Spending in 2009 = $14 million Spending in 2010 = $25 million Spending in = $ 7 million 1. Develop & Strategy 2. Concept Design 5. Feedback 3. Delivery 4. Operations Notes: 1. Cost shown are based on current information and therefore order-of-magnitude (+50%, -30%) in nature for comparison purposes only. Once a scenario(s) is selected, a more thorough and detailed delivery plan and cost estimate will be prepared. 2. Investment to concept noted above includes investigation studies, pilot project, demonstration and feasibility studies only. CH2M HILL Proprietary - Reuse Prohibited

24 Regional scenario description 2500 Base Projects & Primary Projects Dry MRF + In-Vessel Composting Biomass burner construction wood waste Waste minimization and AWCS Alternative water options-dew/fog collector Reduce undercroft lighting and ventilation Reduce non-resident building electrical load Geothermal energy + pumping to demand Reduce street lighting load Add 1 MW PV ground mount to 10 MW farm Eliminate black water treatment electrical load use biogas from anaerobic digestion Reduced demand from small square delay Water supply from ADDC Flora/Fauna/Wildlife/People optimization % Energy gap compare to 44% gap for 10% better than AD results 3% Energy gap compare to 31% gap for demand < 40% AD reference MWh/day Secondary Projects Install 10 MW WtE for non-recyclables + additional imported waste Increase rooftop PV generation + cleaning develop recycle market CSP production on small square Increase CSP Electrical/Thermal cooling ratio Increase Electrical Distribution efficiency Reduce ICT and PRT demand 0 May-08 Nov-08 May-09 Nov-09 May-10 Nov-10 May-11 Nov-11 May-12 Nov-12 May-13 Nov-13 May-14 Nov-14 May-15 Nov-15 May-16 Nov-16 May-17 Nov-17 Months Current Regional Demand Regional Electric Supply Regional Demand 10% Abu Dhabi Current Baseline Demand Use ADDC for majority of potable water supply Import waste for WtE Generation Determine ROI for Small Square CSP CH2M HILL Proprietary - Reuse Prohibited September 10 p24

25 CO 2 e concept Embedded CO 2 e Buildings & Platform (Dcarbon8) Infrastructure (TBD) Regional Infrast. (TBD) Operations CO 2 e Infrastructure (McKinsey) Utilities (McKinsey) Embedded CO 2 e Food (TBD) Flora/Fauna (TBD) People choices (TBD) CO 2 e Balance Results in 6 months to 2+ years Concept Design in 9 months

26 CH2M HILL Programme Management Responsibilities include: Design Health, Safety & Environment Sustainability Project Delivery Program and Document Controls Procurement Performance Indicators Technology City Governance

27 PM Objectives on Masdar City The Masdar City Vision is incorporated in the delivery of the overall programme. The delivery of Masdar City to established budgets and schedules. The delivery of Masdar City to achieve the established sustainability standards. The delivery of Masdar City to achieve the established quality standards. Provide leadership, management and direction on all aspects of the delivery of Masdar City to achieve these objectives.

28 Masdar City Under Construction Masdar Institute - Phase 1a 45,000 sq.m August 2009 p28

29 Masdar City Layering PRT Primary infrastructure PV roof Building plots Raised street level Abu Dhabi metro p29

30 Integrated Transport Masdar City will be the first land-based city to operate without fossil fueled vehicles Walking, electric vehicles, cycling, PRT and LRT are the modes of transportation within Masdar City. With 40,000 commuters per day, Masdar City will have strategically placed parking areas for fossil-fueled vehicles Personal Rapid Transit (PRT) PRT Fast Facts PRT Vehicles: 3,000 PRT Stations: FRT Vehicles 810 PRT Trips per day: 135,000 Max. Walking Distance to PRT Station: 150m LRT Trips per hour: 5,000 people

31 Mobility LRT Station PRT Station Public Park 150 m Walking 2-3min 300 m Cycle / Segway Public Green Space School Playground Neighbourhood Centre Shops Place of Worship Work places p31

32 Supply Chain Sustainability Definition collaborative effort of multiple stakeholders to design, build, and operate a seamless, value-

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34 SMS - A Tool to Deliver the Masdar Vision Plan Monitor Visualize and Analyze Foot print Supply Chain Products and Materials Reporting Operate the City

35 Masdar City Governance Department What it is! What it is not!

36 Masdar City It is NOT a City in the traditional Western definition No elected officials Not a separate public entity It is a Private Development Tenancy Codes & Specific sustainability rules Specific guidelines on fit-out requirements Specific sustainability goals (OPL)

37 Sustainability includes the City Governance Department The City Governance Department has worked to incorporate and integrate sustainability, expressed as the One Planet Living Principles, into: Governance Management and Operations planning

38 Continuing Challenges Integration of the infrastructure systems Sourcing new sustainable technologies Increasing efficiencies of current technologies Supply chain mapping of materials and products

39 Next steps Infrastructure associated development Phase 1 podium construction Architectural competitions for iconic buildings Optimising real estate mix