KTH Urban Studio - Sustainable Urban Design Intro I

Transcript

1. SUSTAIN URBAN DESIGN INTRODUCTION TO AN IDEAWORLD I MANOOCHEHRI KTH-A URBAN STUDIO | 270110 | AT-0
3. J M
4. E N V I R O N M E N T J M
5. E N V I R O N M E N T S U S T A I N A B I L I T Y J M
6. 1234 E N V I R O N M E N T S U S T A I N A B I L I T Y J M
7. 1234 PRINCIPLES E N V I R O N M E N T S U S T A I N A B I L I T Y J M
8. 1234 PRINCIPLES BUILT DESIGN E N V I R O N M E N T S U S T A I N A B I L I T Y J M
9. 1234 PRINCIPLES FRAMEWORK BUILT DESIGN E N V I R O N M E N T S U S T A I N A B I L I T Y J M
10. 1234 PRINCIPLES FRAMEWORK BUILT DESIGN E N V I R O N M E N T REVIEW / SUMMARY S U S T A I N A B I L I T Y J M
11. JM
13. JM
14. OXFORD > UN JM
15. OXFORD > UN SCOE CO-OP 2001 JM
16. OXFORD > UN SCOE CO-OP 2001 RV CONSULT RESEARCH 2003 SCIENCE P&C POLICY STRATEGY JM
17. OXFORD > UN SCOE CO-OP 2001 RV CONSULT RESEARCH 2003 SCIENCE P&C POLICY STRATEGY RV DESIGN 2006 RTA (KTH, SURREY) GENERAL A + UD CONSULT DESIGN COLLABORATION LIFESTYLE DESIGN UPD SDUS WRITING JM
18. ENVIRONMENT
20. E N V I R O N M E N T
21. E N V I R O N M E N T T O O L S
22. E N V I R O N M E N T T O O L S ACTION?
24. HISTORY
25. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
26. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
27. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
28. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
29. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
30. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
31. Pre-Enlightenment Ancients Lao Tzu, Plato, Asoka: c.500 BCE Industrial Revolution Romantics Muir, Ruskin, Thoreau: late 19th C Early Scientists Pinchot, Leopold, Geddes: 19th-20th 20th C Disasters Minamata Bay, Torrey Canyon, Chernobyl: 60s-80s Scientists Carson, Meadows, Commoner, Ehrlich: 60s, 70s Green Ideologues Kelly, Bahro, Porritt: 80s HISTORY
33. IDEAS
34. Lack of Harmony Separation from Nature Pollution Humankind spoiling its own living environment Wise-use Lack of strategy in exploiting resources Industrial Ugliness Machinery harming Nature, humankind brutalising/being brutalised Enlightenment Inverted Separation from natural systems, lack of immediate feedbacks, lack of contextual limits Hypertechnology, Systems Complexity Super-pollution, Mega-catastrophe Politico-economic ‘anthropocentrism’ (c.f. ‘geocentrism’) Defective theories of economic development IDEAS
36. POLICY
37. 19th C National parks (Yellowstone, 1872), game reserves, scientific conservation Post-war Some intl interest (UNSCCUR ‘49) 50s-70s Anti-pollution legislation, toxics legislation, government ministries 80s Green parties, consumer action 90s Rio (UNCED ‘92) decade, international meetings POLICY
38. 19th C National parks (Yellowstone, 1872), game reserves, scientific conservation Post-war Some intl interest (UNSCCUR ‘49) 50s-70s Anti-pollution legislation, toxics legislation, government ministries 80s Green parties, consumer action 90s Rio (UNCED ‘92) decade, international meetings POLICY
39. 19th C National parks (Yellowstone, 1872), game reserves, scientific conservation Post-war Some intl interest (UNSCCUR ‘49) 50s-70s Anti-pollution legislation, toxics legislation, government ministries 80s Green parties, consumer action 90s Rio (UNCED ‘92) decade, international meetings POLICY
40. 19th C National parks (Yellowstone, 1872), game reserves, scientific conservation Post-war Some intl interest (UNSCCUR ‘49) 50s-70s Anti-pollution legislation, toxics legislation, government ministries 80s Green parties, consumer action 90s Rio (UNCED ‘92) decade, international meetings POLICY
42. SCIENCE
43. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
44. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
45. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
46. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
47. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
48. Yield Resources/Media Forests (productivity, area) Fisheries (productivity, species) Minerals/Fossils (availability) Rangelands (cattle health/ productivity, feed sustainability, toxification) Pastures (soil depth, soil fertility, productivity, toxification): Land (urbanisation, toxification) Air (pollution) Water (freshwater stocks, pollution) Non-yield Resources Ecosystem resilience Carbon/Nitrogen/Water Cycles Climate stability Drainage Nature Species Ecosystems Biomes Aggregate Impact Eco-Footprint Environmental Space Ecosystem Health CO2e Concentration SCIENCE
49. Mandates Policy frameworks (Agenda 21), Changed mandates (GATT) Institutional development Government Agencies and Ministries Policies Regulatory: Preservation, Anti-pollution Fiscal: Resource-use taxes, Behaviour taxes, Funding for research Informational: consumer education/information Concepts Sustainable development
50. Mandates Policy frameworks (Agenda 21), Changed mandates (GATT) Institutional development Government Agencies and Ministries Policies Regulatory: Preservation, Anti-pollution Fiscal: Resource-use taxes, Behaviour taxes, Funding for research Informational: consumer education/information Concepts Sustainable development POLICY ACTION
51. Sustainable Social Successful SD
52. Sustainable Social Successful SD SD
53. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality
54. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality VISIONS
55. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality VISIONS
56. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality VISIONS
57. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality VISIONS
58. Clean by Technology Biotech, Bioremeditation, Nuclear, Pollution Capture, Mega-engineering Efficiency by Design Full-system design, Advanced composites, Intelligent Controls, Passive Systems Better-organised by Systems Public systems, Product-Service-Systems, Changed business models Sufficiency by Simplicity Upshift, Locality, Quality VISIONS
60. BREEAM
61. Sustainable sites (14 points) Construction Activity Pollution Prevention Plan (required) Site selection (1 pt) Development density and community connectivity (1 pt) Brownfield redevelopment (1 pt) Alternative transportation availability (3 pts) Public transportation access (1 pt) Bicycle storage and changing rooms (1 pt) Parking capacity and carpooling (1 pt) Reduced site disturbance (2 pt) Protect or restore open space (1 pt) Development footprint Stormwater management (2 pts) Rate and quantity (1 pt) Treatment (1 pt) Reduce heat islands (2 pts) Roof (1 pt) Non-roof (1 pt) Light pollution reduction (1 pt) Water efficiency (5 points) Water efficient landscaping (2 pt) Reduce by 50% (1 pt) No potable use or no irrigation (1 pt) Innovative wastewater technologies (1 pt) Water use reduction (2 pt) Energy and atmosphere (17 points) Fundamental commissioning (required) Minimum (code) energy performance (required) Fundamental Refrigerant Management (required) Optimize energy performance by 14% (new) or 7% (existing) buildings (2 pts, required as of June 26, 2007) Energy optimization (8 pts in addition to the 2 required above) On-site renewable energy (3 pts) Ozone depletion (1 pt) Measurement and verification (1 pt) Green power (1 pt) Materials and resources (13 points) Storage and collection of recyclables (required) Building reuse (3 pts): 75% reuse of building structure and shell excluding windows (1 pt) 100% reuse of building structure and 50% of walls, floors, ceilings (1 pt) Construction waste reuse or recycling (by weight or volume) (2 pts): 50% diversion (1 pt) 75% diversion (1 pt) Reuse of existing materials (by cost) (2 pts) 5% salvaged or refurbished materials (1 pt) 10% salvaged or refurbished materials (1 pt) Recycled content (2 pts) Criteria vary in recent versions of LEED, but depend on value of pre- and post-consumer recycled content (2 pt) Use of local materials (2 pts) Fabrication shop within 500 miles (800 km) of building site and raw materials source within 500 miles (800 km) of building site, 10% (1 pt) or 20% (+1 pt). Rapidly renewable materials (1 pt) Certified Wood (1 pt) Indoor environmental quality (15 points) Minimum indoor air quality (required) Environmental tobacco smoke control (required) Outdoor air delivery monitoring (1 pt) Increased ventilation (1 pt) Construction indoor air quality management (2 pt) Indoor chemical and pollutant source control (1 pt) Controllability of systems (2 pt) Thermal comfort (2 pt) Daylight and views (2 pt) Innovation and design process (5 points) Examples for up to four design points using steel construction include structure as finish, structure as plumbing, lightweight materials, recyclability, and potential for disassembly.
62. Sustainable sites (14 points) Construction Activity Pollution Prevention Plan (required) Site selection (1 pt) Development density and community connectivity (1 pt) Brownfield redevelopment (1 pt) Alternative transportation availability (3 pts) Public transportation access (1 pt) Bicycle storage and changing rooms (1 pt) Parking capacity and carpooling (1 pt) Reduced site disturbance (2 pt) Protect or restore open space (1 pt) Development footprint Stormwater management (2 pts) Rate and quantity (1 pt) Treatment (1 pt) Reduce heat islands (2 pts) Roof (1 pt) Non-roof (1 pt) Light pollution reduction (1 pt) Water efficiency (5 points) Water efficient landscaping (2 pt) Reduce by 50% (1 pt) No potable use or no irrigation (1 pt) Innovative wastewater technologies (1 pt) Water use reduction (2 pt) Energy and atmosphere (17 points) Fundamental commissioning (required) Minimum (code) energy performance (required) Fundamental Refrigerant Management (required) Optimize energy performance by 14% (new) or 7% (existing) buildings (2 pts, required as of June 26, 2007) Energy optimization (8 pts in addition to the 2 required above) On-site renewable energy (3 pts) Ozone depletion (1 pt) Measurement and verification (1 pt) Green power (1 pt) Materials and resources (13 points) Storage and collection of recyclables (required) Building reuse (3 pts): 75% reuse of building structure and shell excluding windows (1 pt) 100% reuse of building structure and 50% of walls, floors, ceilings (1 pt) Construction waste reuse or recycling (by weight or volume) (2 pts): 50% diversion (1 pt) 75% diversion (1 pt) Reuse of existing materials (by cost) (2 pts) 5% salvaged or refurbished materials (1 pt) 10% salvaged or refurbished materials (1 pt) Recycled content (2 pts) Criteria vary in recent versions of LEED, but depend on value of pre- and post-consumer recycled content (2 pt) Use of local materials (2 pts) Fabrication shop within 500 miles (800 km) of building site and raw materials source within 500 miles (800 km) of building site, 10% (1 pt) or 20% (+1 pt). Rapidly renewable materials (1 pt) Certified Wood (1 pt) Indoor environmental quality (15 points) Minimum indoor air quality (required) Environmental tobacco smoke control (required) Outdoor air delivery monitoring (1 pt) Increased ventilation (1 pt) Construction indoor air quality management (2 pt) Indoor chemical and pollutant source control (1 pt) Controllability of systems (2 pt) Thermal comfort (2 pt) Daylight and views (2 pt) Innovation and design process (5 points) Examples for up to four design points using steel construction include structure as finish, structure as plumbing, lightweight materials, recyclability, and potential for disassembly. LEED
63. 9. EQU inves 10. HEA prom NET LIVING 6 7 8 9 10 2 3 4 5 s based ples of anet n which ead within e Earth’s One Pl courtes an initia engage specify The init represe
64. OPL 9. EQU inves 10. HEA prom NET LIVING 6 7 8 9 10 2 3 4 5 s based ples of anet n which ead within e Earth’s One Pl courtes an initia engage specify The init represe
66. EVA
67. CONTEXT We all share the need to recognize ourselves in the context in which we live. Kjellgren Kaminsky collects inspiration from the unique history and soul of each new environment. These two ingredients create together with people’s specifi c needs, the context that fi nally is formed into a fi nished building.
68. CONTEXT We all share the need to recognize ourselves in the context in which we live. Kjellgren Kaminsky collects inspiration from the unique history and soul of each new environment. These two ingredients create together with people’s specifi c needs, the context that fi nally is formed into a fi nished building. OTHER / K&K
70. E N V I R O N M E N T
71. E N V I R O N M E N T T O O L S
72. E N V I R O N M E N T T O O L S ACTION?
73. SUSTAINABILITY
75. 1 2 3 4
76. 1 2 3 4 P R I N C I P L E S
77. 1 2 3 4 P R I N C I P L E S B U I L T D E S I G N
78. 1 2 3 4 P R I N C I P L E S F R A M E W O R K B U I L T D E S I G N
82. 1 MATERIAL CRISIS 2 PROBLEMS 3 SOLUTIONS 4 ENABLERS 1234
84. 0 CRITIQUE
85. BINARY DEBATE TECHNOLOGY OF SUPPLY? FORCING MASS SOCIAL CHANGE? ENVIRONMENTAL VS SUSTAINABLE TOTAL MATERIALISATION? CONDITIONED MATERIALISATION? DESIGN VS ENGINEERING DESIGN? CREATIVITY? HUMAN DEVELOPMENT CREATIVITY FREEDOM OBSCURITY? COHERENT STRUCTURE? MASKING OF POLITICS? SOCIAL ISSUES? APPROPRIATE RELATIONSHIP? SERIOUS TREATMENT? COST? FEASIBLE? COST EFFECTIVE? 0 CRITIQUE
87. 1 MATERIAL CRISIS
88. RESOURCES MEDIA APPLICATIONS FUNCTION 1 MATERIAL CRISIS
89. FOSSILS MINERALS BIOTA LIFESYSTEMS SUN WATER SOIL LAND SPACE FOOD POWER GOODS MOBILITY BUILDINGS INFRASTRUCTURE ACTIVITY VALUE EXPERIENCE WELFARE RESOURCES MEDIA APPLICATIONS FUNCTION 1 MATERIAL CRISIS
91. 2 PROBLEM
92. A BIOPHYSICAL RESOURCE LIMITS ABSORPTION (pollution, waste) STOCKS (freshwater, oil, minerals) SERVICES (climate, nutrient cycling, resilience) INPUTS (solar, tidal) B NATURE VULNERABILITY SPECIES ECOSYSTEMS LANDSCAPES 2 PROBLEM
94. 3 SOLUTIONS
95. A SUPPLY POLLUTION REDUCTION STOCK CONSERVATION NATURE PRESERVATION B APPLICATIONS BETTER APPLICATION OF RESOURCES C BEHAVIOUR ME/US ETHICS THEM ETHICS 3 SOLUTIONS
97. 4 ENABLERS
98. A INFORMATION B PRICES C LAWS 4 ENABLERS
99. A INFORMATION B PRICES C LAWS 4 ENABLERS D QUALITY DESIGN, INNOVATION, NARRATIVE, VALUE
102. 1 MATERIAL CULTURE 2 PROBLEMS 3 SOLUTIONS 4 ENABLERS 1234
103. PRINCIPLES
105. N
106. NATURAL RESOURCES N
107. NATURAL RESOURCES N H
108. NATURAL RESOURCES BUILT DESIGN/ PRODUCTS N H
109. NATURAL RESOURCES BUILT DESIGN/ PRODUCTS N H
110. NATURAL RESOURCES BUILT DESIGN/ PRODUCTS N H
111. ⊖R NATURAL RESOURCES BUILT DESIGN/ PRODUCTS N H
112. ⊖R NATURAL RESOURCES BUILT DESIGN/ PRODUCTS N H
113. ⊖R NATURAL RESOURCES BUILT DESIGN/ PRODUCTS ⊗R N H
114. ⊖R NATURAL RESOURCES BUILT DESIGN/ PRODUCTS ⊗R N H
115. ⊖R NATURAL RESOURCES ⊗C BUILT DESIGN/ PRODUCTS ⊗R N H
116. ⊖R NATURAL RESOURCES BUILT DESIGN/ PRODUCTS ⊖U ⊗R N H
119. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM
120. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM
121. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM
122. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM ⊖R
123. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM ⊖R⊗N
124. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM ⊖R ⊗R ⊗N
125. SUPPLY APPLICATIONS BEHAVIOUR POLLUTION MIN PRESERVATION CONSERVATION BETTER APPLICATION ME/US THEM ⊖R ⊗C ⊗R ⊗N
126. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED ⊖ ⊗ ⊗ ⊗
127. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED SAFE EFFICIENT APPRECIATIVE ⊖ ⊗ ⊗ ⊗ ⊖ ⊖
128. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED SAFE EFFICIENT APRECIATIVE PRODUCTIVE ELEGANT LIBERATING ⊖ ⊖ ⊖ ⊖
129. BUILT DESIGN
130. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED TECHS? METHODS? TECHS? METHODS? TECHS? METHODS? ⊖ ⊗ ⊗
131. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED ! ? ! DESIGN? ! DESIGN? ⊖ ⊗ ⊗
132. SUPPLY APPLICATIONS BEHAVIOUR MANAGED DESIGNED INFORMED ! ? ! NO MONEY MORE LIMITS ! POLITICS ⊖ ⊗ ⊗
134. H N p c
135. H N p c
136. H N p c METABOLISM
137. H N p c METABOLISM
138. H N p c METABOLISM RECYCLING
139. H N p c METABOLISM RECYCLING
140. H N p c METABOLISM R E S I L I E N C E RECYCLING
141. H N p c METABOLISM R E S I L I E N C E RECYCLING
142. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E RECYCLING
143. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E RECYCLING
144. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E BIOCYCLING RECYCLING
145. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E BIOCYCLING RECYCLING
146. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E BIOCYCLING SERVICE-USE RECYCLING
147. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E BIOCYCLING SERVICE-USE RECYCLING
148. H N p c METABOLISM SYMBIOSIS R E S I L I E N C E SOCIETY LIFESTYLES INFRASTRUCTURE BUILT ENVIRONMENT CITIES BIOCYCLING SERVICE-USE RECYCLING
149. FRAMEWORK
150. SUSTAINABILITY SUPPLY APPLICATIONS BEHAVIOUR CONCEPTS MATERIAL CLEAN ABUNDANT CONTROLLED EFFICIENT DESIGNED NETWORKED SKILLED MEDIA Soil Space Land Water RESOURCES Fossils Life-systems Minerals Biota Sunlight APPLICATIONS Power Housing Mobility Food Goods Infrastructure MY NEEDS THEIR NEEDS TECHNIQUES Pollution Capture Technolgy Waste Management Recapture Technology Remediation Technology Toxics Reduction Scientific 

Management Source Substitution Park Management Preservation Research Remediation & Restoration Material choices Personal reductions Process 

Efficiency Product 

Efficieny Recycled Materials Recycling Durability Localisation Simultaneous Functionality Sequential Functionality Synchronic Usage Sequential Usage User-adapting Tech User Skills Service Agents Pollution Reduction Stock Conservation Nature Protection Resource 

Efficiency Functional 

Efficiency Use 

Efficiency Welfare 

Efficiency Sufficiency-­Limits Respect-Limits
151. SUSTAINABILITY SUPPLY APPLICATIONS BEHAVIOUR CONCEPTS MATERIAL CLEAN ABUNDANT CONTROLLED EFFICIENT DESIGNED NETWORKED SKILLED MEDIA Soil Space Land Water RESOURCES Fossils Life-systems Minerals Biota Sunlight APPLICATIONS Power Housing Mobility Food Goods Infrastructure MY NEEDS THEIR NEEDS TECHNIQUES Pollution Capture Technolgy Waste Management Recapture Technology Remediation Technology Toxics Reduction Scientific 

Management Source Substitution Park Management Preservation Research Remediation & Restoration Material choices Personal reductions Process 

Efficiency Product 

Efficieny Recycled Materials Recycling Durability Localisation Simultaneous Functionality Sequential Functionality Synchronic Usage Sequential Usage User-adapting Tech User Skills Service Agents Pollution Reduction Stock Conservation Nature Protection Resource 

Efficiency Functional 

Efficiency Use 

Efficiency Welfare 

Efficiency Sufficiency-­Limits Respect-Limits
153. 1 2 3 4
154. 1 2 3 4 P R I N C I P L E S
155. 1 2 3 4 P R I N C I P L E S B U I L T D E S I G N
156. 1 2 3 4 P R I N C I P L E S F R A M E W O R K B U I L T D E S I G N
157. SUMMARY
159. J M
160. E N V I R O N M E N T J M
161. E N V I R O N M E N T S U S T A I N A B I L I T Y J M
162. 1234 E N V I R O N M E N T S U S T A I N A B I L I T Y J M
163. 1234 PRINCIPLES E N V I R O N M E N T S U S T A I N A B I L I T Y J M
164. 1234 PRINCIPLES BUILT DESIGN E N V I R O N M E N T S U S T A I N A B I L I T Y J M
165. 1234 PRINCIPLES FRAMEWORK BUILT DESIGN E N V I R O N M E N T S U S T A I N A B I L I T Y J M
166. 1234 PRINCIPLES FRAMEWORK BUILT DESIGN E N V I R O N M E N T REVIEW / SUMMARY S U S T A I N A B I L I T Y J M
167. INTRO 2
169. R E C A P / D I S C U S S
170. R E C A P / D I S C U S S T E C H N I Q U E S
171. R E C A P / D I S C U S S T E C H N I Q U E S M E T H O D S
172. R E C A P / D I S C U S S T E C H N I Q U E S C A S E S M E T H O D S
173. R E C A P / D I S C U S S T E C H N I Q U E S C A S E S M E T H O D S C R I T I Q U E
174. ASSIGNMENT 1
176. K E Y C O N C E P T S
177. K E Y C O N C E P T S S Y S T E M
178. K E Y C O N C E P T S S Y S T E M D E M O G R A P H I C S
179. K E Y C O N C E P T S S Y S T E M L I F E S T Y L E D E M O G R A P H I C S
180. K E Y C O N C E P T S S Y S T E M L I F E S T Y L E D E M O G R A P H I C S A R C H I T E C T U R E
181. SUSTAIN URBAN DESIGN INTRODUCTION TO AN IDEAWORLD I jm@resourcevision.se KTH-A URBAN STUDIO | 270110 | AT-0