KTH Compositions in Urban Design Studio - Energy & Waste - Why, What, How

Transcript

1. why, what, how KTH UPD Compositions Manoochehri 101122 ENERGY & WASTE
2. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE
3. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK
4. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK
5. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions:
6. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions: what is energy, and why is it needed for cities?
7. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions: what is energy, and why is it needed for cities? what is waste, and why is it created by cities?
8. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions: what is energy, and why is it needed for cities? what is waste, and why is it created by cities?
9. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions: what is energy, and why is it needed for cities? what is waste, and why is it created by cities? MAX OUTPUT: Not very much
10. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE
11. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM
12. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM
13. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city).
14. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city).
15. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy?
16. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy?
17. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations
18. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations
19. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM
20. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM
21. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM Proposing new urban morphologies, find more profound integrations of energy/waste (and now you get the idea of energy production/conservation, and waste reduction/waste recycling practices) with urban form and fabric.
22. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM Proposing new urban morphologies, find more profound integrations of energy/waste (and now you get the idea of energy production/conservation, and waste reduction/waste recycling practices) with urban form and fabric. For example (not possible with existing morphologies), orienting entire blocks for maximum total solar gain.
23. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM Proposing new urban morphologies, find more profound integrations of energy/waste (and now you get the idea of energy production/conservation, and waste reduction/waste recycling practices) with urban form and fabric. For example (not possible with existing morphologies), orienting entire blocks for maximum total solar gain.
24. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM Proposing new urban morphologies, find more profound integrations of energy/waste (and now you get the idea of energy production/conservation, and waste reduction/waste recycling practices) with urban form and fabric. For example (not possible with existing morphologies), orienting entire blocks for maximum total solar gain. MAX OUTPUT: 1 x A1, diags, text, illustrations
25. ENERGY & WASTE
26. ENERGY & WASTE WHY IS IT IMPORTANT?
27. ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT?
28. ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT? HOW DOES A CITY DO IT?
29. ENERGY
30. WHY?
32. ENERGY IS EVERYTHING
33. ENERGY IS EVERYTHING food, heat; production, transport; city organisation
34. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE
35. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades
36. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades ENERGY IS HOW WE UNDERSTAND NATURE
37. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades ENERGY IS HOW WE UNDERSTAND NATURE biology energy flow diagrams, human system energy flows, material flows
38. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades ENERGY IS HOW WE UNDERSTAND NATURE biology energy flow diagrams, human system energy flows, material flows ENERGY IS HOW WE UNDERSTAND OURSELVES
39. ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades ENERGY IS HOW WE UNDERSTAND NATURE biology energy flow diagrams, human system energy flows, material flows ENERGY IS HOW WE UNDERSTAND OURSELVES power over everything and everyone
40. WHAT
41. THEORY & MEASURE
42. ENERGY IS CAPACITY TO DO WORK THEORY & MEASURE
43. ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic THEORY & MEASURE
44. ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic JOULES PER SECOND = WATT THEORY & MEASURE
45. ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic JOULES PER SECOND = WATT Remember, energy always degrades THEORY & MEASURE
46. HISTORY
47. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ HISTORY
48. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain HISTORY
49. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass HISTORY
50. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro HISTORY
51. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source HISTORY
52. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core HISTORY
53. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM HISTORY
54. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight HISTORY
55. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight POST-FOSSIL PARADIGM? HISTORY
56. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight POST-FOSSIL PARADIGM? Back to pre-fossil solar? HISTORY
57. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight POST-FOSSIL PARADIGM? Back to pre-fossil solar? Neo-fossil paradigm? HISTORY
58. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight POST-FOSSIL PARADIGM? Back to pre-fossil solar? Neo-fossil paradigm? Post-fossil solar paradigm? HISTORY
59. BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight POST-FOSSIL PARADIGM? Back to pre-fossil solar? Neo-fossil paradigm? Post-fossil solar paradigm? HISTORY +++ ? Minerals, Wacky Biota
60. TECHNOLOGY & DESIGN
61. VECTORISATION TECHNOLOGY & DESIGN
62. VECTORISATION Concentration? TECHNOLOGY & DESIGN
63. VECTORISATION Concentration? Storage? TECHNOLOGY & DESIGN
64. VECTORISATION Concentration? Storage? Transport? TECHNOLOGY & DESIGN
65. VECTORISATION Concentration? Storage? Transport? CONVERSION TECHNOLOGY & DESIGN
66. VECTORISATION Concentration? Storage? Transport? CONVERSION Efficiency of final use? TECHNOLOGY & DESIGN
67. VECTORISATION Concentration? Storage? Transport? CONVERSION Efficiency of final use? ROEI / EROEI TECHNOLOGY & DESIGN
68. HOW?
69. PRE-FOSSIL
70. DIRECT PRE-FOSSIL
71. DIRECT vectorisation: biotic, solar gain PRE-FOSSIL
72. DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) PRE-FOSSIL
73. DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain PRE-FOSSIL
74. DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain functions: (fuel > food, space heating) PRE-FOSSIL
75. DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain functions: (fuel > food, space heating) conservation: massing, insulation, orientation PRE-FOSSIL
76. PRE-FOSSIL
77. INDIRECT PRE-FOSSIL
78. INDIRECT animal transport PRE-FOSSIL
79. INDIRECT animal transport local food PRE-FOSSIL
80. INDIRECT animal transport local food local and natural materials PRE-FOSSIL
81. INDIRECT animal transport local food local and natural materials spatial engineering rather than technology PRE-FOSSIL
82. INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects PRE-FOSSIL
83. INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects culture not consumers PRE-FOSSIL
84. INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects culture not consumers human-scale urbanism PRE-FOSSIL
85. INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects culture not consumers human-scale urbanism vertical and horizontal; i.e. mass/void, connections PRE-FOSSIL
86. FOSSIL
87. DIRECT FOSSIL
88. DIRECT vectorisation: fossils, electricity FOSSIL
89. DIRECT vectorisation: fossils, electricity production: fossil/mineral burning FOSSIL
90. DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics FOSSIL
91. DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics functions: ... whatevs FOSSIL
92. DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics functions: ... whatevs conservation: ... eh? FOSSIL
93. FOSSIL
94. INDIRECT FOSSIL
95. INDIRECT machine transport FOSSIL
96. INDIRECT machine transport chemical-machine food FOSSIL
97. INDIRECT machine transport chemical-machine food distant food and material supply chains FOSSIL
98. INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering FOSSIL
99. INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems FOSSIL
100. INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems consumers not culture FOSSIL
101. INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems consumers not culture machine-scale urbanism FOSSIL
102. INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems consumers not culture machine-scale urbanism vertical and horizontal; mass/void, connections FOSSIL
103. ENERGY & WASTE
104. ENERGY & WASTE WHY IS IT IMPORTANT?
105. ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT?
106. ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT? HOW DOES A CITY DO IT?
107. POST-FOSSIL
108. PRE-FOSSIL SOLAR? POST-FOSSIL
109. PRE-FOSSIL SOLAR? NEO-FOSSIL? POST-FOSSIL
110. POST-FOSSIL
111. DIRECT POST-FOSSIL
112. DIRECT vectorisation: solar vs ? POST-FOSSIL
113. DIRECT vectorisation: solar vs ? production: how? integration? why? POST-FOSSIL
114. DIRECT vectorisation: solar vs ? production: how? integration? why? applications: what actually needs energy? POST-FOSSIL
115. DIRECT vectorisation: solar vs ? production: how? integration? why? applications: what actually needs energy? conservation: why is this so hard? POST-FOSSIL
116. POST-FOSSIL
117. INDIRECT POST-FOSSIL
118. INDIRECT transport: why travel? how travel? POST-FOSSIL
119. INDIRECT transport: why travel? how travel? food: local? regional? POST-FOSSIL
120. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? POST-FOSSIL
121. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? engin’ing vs tech: > pulleys, levers, arches ... & parametrics! POST-FOSSIL
122. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? engin’ing vs tech: > pulleys, levers, arches ... & parametrics! systems vs objects: do we design objects or systems? POST-FOSSIL
123. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? engin’ing vs tech: > pulleys, levers, arches ... & parametrics! systems vs objects: do we design objects or systems? culture vs consumers: whose idea(l)s are we designing for? POST-FOSSIL
124. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? engin’ing vs tech: > pulleys, levers, arches ... & parametrics! systems vs objects: do we design objects or systems? culture vs consumers: whose idea(l)s are we designing for? urbanism scale: the big question! POST-FOSSIL
125. INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? engin’ing vs tech: > pulleys, levers, arches ... & parametrics! systems vs objects: do we design objects or systems? culture vs consumers: whose idea(l)s are we designing for? urbanism scale: the big question! vertical and horizontal; i.e. mass/void, connections POST-FOSSIL
126. WASTE
127. WHY?
129. POLLUTION
130. POLLUTION human and non-human wellbeing
131. POLLUTION human and non-human wellbeing RESOURCES
132. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival
133. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?!
134. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?! REVEALS SYSTEM DESIGN
135. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?! REVEALS SYSTEM DESIGN waste is a system error not a behaviour error
136. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?! REVEALS SYSTEM DESIGN waste is a system error not a behaviour error REVEALS LIFESTYLES
137. POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?! REVEALS SYSTEM DESIGN waste is a system error not a behaviour error REVEALS LIFESTYLES waste is a social error not a behaviour error
138. WHAT
139. [Pollution, waste] is matter out of place. MARY DOUGLAS, 1966
141. BIOTA
142. BIOTA plant biomass
143. BIOTA plant biomass human and animal excreta
144. BIOTA plant biomass human and animal excreta animal biomass
145. BIOTA plant biomass human and animal excreta animal biomass MINERALS
146. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals
147. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics
148. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other
149. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER
150. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites
151. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures
152. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures suspensions
153. BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures suspensions synthetic fluids
155. SCIENCE
156. SCIENCE ELEMENTS
157. SCIENCE ELEMENTS COMPOUNDS
158. SCIENCE ELEMENTS COMPOUNDS MIXTURES
159. CRADLE TO CRADLE SCIENCE ELEMENTS COMPOUNDS MIXTURES
160. CRADLE TO CRADLE TECHNICAL CYCLE SCIENCE ELEMENTS COMPOUNDS MIXTURES
161. CRADLE TO CRADLE TECHNICAL CYCLE BIO CYCLE SCIENCE ELEMENTS COMPOUNDS MIXTURES
162. HOW?
163. PRE-FOSSIL
164. DIRECT PRE-FOSSIL
165. DIRECT production: excreta, mineral industrial waste PRE-FOSSIL
166. DIRECT production: excreta, mineral industrial waste minimisation: economic constraints PRE-FOSSIL
167. DIRECT production: excreta, mineral industrial waste minimisation: economic constraints reclamation: biotic, technical PRE-FOSSIL
168. PRE-FOSSIL
169. INDIRECT PRE-FOSSIL
170. INDIRECT local disposal PRE-FOSSIL
171. INDIRECT local disposal local recovery PRE-FOSSIL
172. INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths PRE-FOSSIL
173. INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths ‘design’ for biocycle PRE-FOSSIL
174. INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths ‘design’ for biocycle ‘design’ for technical cycle PRE-FOSSIL
175. FOSSIL
176. DIRECT FOSSIL
177. DIRECT production: vast complexity and pollution of waste-streams FOSSIL
178. DIRECT production: vast complexity and pollution of waste-streams composites, synthetics FOSSIL
179. DIRECT production: vast complexity and pollution of waste-streams composites, synthetics minimisation: economic constraints?? FOSSIL
180. DIRECT production: vast complexity and pollution of waste-streams composites, synthetics minimisation: economic constraints?? reclamation: downcycling FOSSIL
181. FOSSIL
182. INDIRECT FOSSIL
183. INDIRECT offsite disposal FOSSIL
184. INDIRECT offsite disposal recovery-for-offsite-disposal FOSSIL
185. INDIRECT offsite disposal recovery-for-offsite-disposal massive non-biotic, non-mineral waste - composites, synths FOSSIL
186. INDIRECT offsite disposal recovery-for-offsite-disposal massive non-biotic, non-mineral waste - composites, synths no design for biocycle FOSSIL
187. INDIRECT offsite disposal recovery-for-offsite-disposal massive non-biotic, non-mineral waste - composites, synths no design for biocycle no design for technical cycle FOSSIL
188. POST-FOSSIL
189. PRE-FOSSIL SOLAR? POST-FOSSIL
190. PRE-FOSSIL SOLAR? NEO-FOSSIL? POST-FOSSIL
191. POST-FOSSIL
192. DIRECT POST-FOSSIL
193. DIRECT production: why? what? POST-FOSSIL
194. DIRECT production: why? what? minimisation: economic constraints? > POLICY POST-FOSSIL
195. DIRECT production: why? what? minimisation: economic constraints? > POLICY reclamation: economic opportunities! POST-FOSSIL
196. POST-FOSSIL
197. INDIRECT POST-FOSSIL
198. INDIRECT disposal: ... eh? POST-FOSSIL
199. INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale POST-FOSSIL
200. INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale non-biotic, non-mineral waste - composites, synths: hard design, yeah! POST-FOSSIL
201. INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale non-biotic, non-mineral waste - composites, synths: hard design, yeah! ‘design’ for biocycle? POST-FOSSIL
202. INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale non-biotic, non-mineral waste - composites, synths: hard design, yeah! ‘design’ for biocycle? ‘design’ for technical cycle? POST-FOSSIL
203. ASSIGNMENT
204. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK Discuss in the group, and in some short text and / or symbol way present, the questions: what is energy, and why is it needed for cities? what is waste, and why is it created by cities? MAX OUTPUT: Not very much
205. AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM Propose SYNERGIES for integrating energy and waste handling infrastructure with EXISTING urban form and fabric. For example, an Envac vacuum-tube waste system (doesn't require rebuilding the city). Consider: ZERO waste? (think, Cradle To Cradle); ZERO energy, or zero from-outside energy? MAX OUTPUT: 1 x A1, diags, text, illustrations 3. CREATING SYNERGIES WITH FORM Proposing new urban morphologies, find more profound integrations of energy/waste (and now you get the idea energy production/conservation, and waste reduction/waste recycling practices) with urban form and fabric. For example (not possible with existing morphologies), orienting entire blocks for maximum total solar gain. MAX OUTPUT: 1 x A1, diags, text, illustrations
206. why, what, how KTH UPD Compositions jm@resourcevision.se 101122 ENERGY & WASTE