Presentatie van Kevin Burke en Diane Dale op het C2C-congres van Rijkswaterstaat 06 feb 2009

3. Implementing C2C “When in doubt, go back to first principles”

4. Optimal Sustainability ©2006, McDonough Braungart Design Chemistry Flight Path Design Challenge Eco-efficient Design Eco-effective Design Time Present Shareholder Value Future

5. 1 Insist on the right of humanity and nature to co-exist 2 Recognize interdependence 3 Respect relationships between spirit and matter 4 Accept responsibility for the consequence of design 5 Create safe objects of long-term value 6 Eliminate the concept of waste 7 Rely on natural energy flows 8 Understand the limitations of design 9 Seek constant improvement by sharing knowledge

6. Use current solar income “…powered by clean and renewable energy…”

7. Celebrate diversity “Become native to place…”

8. Waste = Food “…employs manufacturing, distribution, and recovery systems that allow those material inputs to be put back into productive use…”

9. Waste = Food “…uses material inputs that have positive effects on people and the environment…”

10. Biological Metabolism Technical Metabolism

11. EcoWorx Polyolefin Material Newly Polymerized Nylon 6 Ecosolution Q Facing Fiber Ecoworx Backing Carpet Tile Production Carpet Tile Sale & Use Recovery & Separation Mechanical Recycling Chemical Recycling Are you using reverse logistics?

17. Imagine a cradle to cradle building…

28. Solar oriented, solar powered Safe materials in closed-loop cycles Treats water as precious resource: capture and reuse Healthy workplace that promotes community, connectivity Abundant daylight and fresh air Anticipatory design: adapts and evolves over time Is native to its place

29. Best Practices: LEED Site Water Energy Materials IEQ Strategies

30. Best Practices: LEED Site Water Energy Materials IEQ Strategies

31. Owner Mission Project Principles Beyond Best Practices: Eco-effective Design

32. Project Goals Project Principles Beyond Best Practices: Eco-effective Design Owner Mission

33. Site Water Energy Materials IEQ Project Goals Project Principles Beyond Best Practices: Eco-effective Design Owner Mission Strategies

45. Opportunity Matrix framework

46. setting priorities

47. focus on patient / exam rooms

48. identifying key materials

51. Ultimate Goal: Restore site and regional ecosystems.

55. TREASURE ISLAND

56. Proposed Strategies

57. Levels of Achievement

65. FORD ROUGE CENTER “ We are committed to transforming an icon of 20th century industrialism into a model of 21st century sustainability.” – William Clay Ford, Jr. CEO & Chairman Ford Motor Company

66. FORD ROUGE CENTER

68. EXAMPLES | FORD ROUGE CONCEPT FRAMEWORK Quality Environment Soil Water Air Habitat Industrial Landscape Quality Corporate Citizenship Architectural History Automotive Heritage Quality Workplace Daylighting Healthy Workplace Employee Support Transportation Quality Production Industrial Buildings Material Flow

71. FORD ROUGE CENTER

72. FORD ROUGE CENTER storm water strategies

73. FORD ROUGE CENTER storm water strategies

74. FORD ROUGE CENTER storm water strategies

75. FORD ROUGE CENTER storm water strategies

76. FORD ROUGE CENTER storm water strategies

77. Hedgerows and Vegetated Drainage Swales FORD ROUGE CENTER storm water strategies

78. Trees Shrubs Ground cover FORD ROUGE CENTER ecological infrastructure

80. Cost of Conventional System $50,000,000 Includes costs for meeting regulatory requirements, which dictated the construction of an onsite treatment plant for dealing with large storm water events Cost of Installed System $15,000,000 All storm water is cleaned through natural filters, eliminating the need for regulatory requirements Savings $35,000,000 Calculated from straight costs alone and does not account for energy and operational savings FORD ROUGE CENTER business case

81. HALI’IMAILE an altered landscape, ecology and society

86. HALI’IMAILE water base case analysis

87. Inputs 844.22 million gallons of rainfall per year 978.5 million gallons of well water for potable and non-potable use Outputs 502.6 million gallons to sanitary sewer 525.94 million gallons to storm sewer HALI’IMAILE water base case analysis Storm Sewer Source - Well Water Source - Rain Water Evapotranspiration/Ground Water Recharge Sanitary Sewer

88. HALI’IMAILE water optimization analysis

89. Conventional 70 gpd dominated by toilets and clothes washers Optimized 36 gpd clothes washer ultra-low flow toilets Water savings 73 m gal /year HALI’IMAILE water optimization analysis

90. HALI’IMAILE water optimization analysis

91. Rainwater Harvest Diagram HALI’IMAILE water optimization – rainwater harvesting

92. HALI’IMAILE water optimization – rainwater harvesting

93. HALI’IMAILE water optimization – rainwater harvesting

94. Membrane Bioreactor Plant – 4o ft w x 80 ft l x 20 ft h for 200 homes Recycled water distributed back to end users. Source: Dover Kohl & Partners HALI’IMAILE waste water optimization – decentralization strategy

95. HALI’IMAILE cradle to cardle nutrient flows

96. Conventional Water Budget Optimized Water Budget Comparative Analysis - 70% reduction in well water use - nutrient recapture - 90% reduction in sanitary water output - 100% reduction in SW effluent HALI’IMAILE base case and optimization case comparision

101. Our goal is a delightfully diverse, safe, healthy and just world — with clean air, water, soil and power — economically, equitably, ecologically and elegantly enjoyed.

103. “ Make It Right”: First Generation

104. “ Make It Right”: Fourth Generation

105. “ Make It Right”: Seventh Generation