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why, what, how KTH UPD Compositions Manoochehri 101122 ENERGY & WASTE

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 1. CONCEPT CHECK

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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:

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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?

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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?

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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?

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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

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM

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AREA & PROJECT: ADAPT PREVIOUS GROUPS: BY CHOICE 2. FINDING SYNERGIES WITH FORM

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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).

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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).

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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?

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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?

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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

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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

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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

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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

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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.

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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.

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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.

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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

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ENERGY & WASTE

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ENERGY & WASTE WHY IS IT IMPORTANT?

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ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT?

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ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT? HOW DOES A CITY DO IT?

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ENERGY

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WHY?

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ENERGY IS EVERYTHING

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ENERGY IS EVERYTHING food, heat; production, transport; city organisation

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ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE

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ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades

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ENERGY IS EVERYTHING food, heat; production, transport; city organisation ENTROPY IS EVERYWHERE energy always degrades ENERGY IS HOW WE UNDERSTAND NATURE

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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

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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

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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

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WHAT

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THEORY & MEASURE

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ENERGY IS CAPACITY TO DO WORK THEORY & MEASURE

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ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic THEORY & MEASURE

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ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic JOULES PER SECOND = WATT THEORY & MEASURE

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ENERGY IS CAPACITY TO DO WORK Overcoming inertia - gravitational, electromagnetic JOULES PER SECOND = WATT Remember, energy always degrades THEORY & MEASURE

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HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM HISTORY

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BASIC ENERGY PARADIGM > SOLAR PARADIGM ++ Solar Gain Biomass Wind, Wave, Hydro Ground-source ++ Moon, Earth Core FOSSIL PARADIGM 200 years of bottled sunlight HISTORY

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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

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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

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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

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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

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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

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TECHNOLOGY & DESIGN

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VECTORISATION TECHNOLOGY & DESIGN

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VECTORISATION Concentration? TECHNOLOGY & DESIGN

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VECTORISATION Concentration? Storage? TECHNOLOGY & DESIGN

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VECTORISATION Concentration? Storage? Transport? TECHNOLOGY & DESIGN

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VECTORISATION Concentration? Storage? Transport? CONVERSION TECHNOLOGY & DESIGN

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VECTORISATION Concentration? Storage? Transport? CONVERSION Efficiency of final use? TECHNOLOGY & DESIGN

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VECTORISATION Concentration? Storage? Transport? CONVERSION Efficiency of final use? ROEI / EROEI TECHNOLOGY & DESIGN

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HOW?

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PRE-FOSSIL

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DIRECT PRE-FOSSIL

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DIRECT vectorisation: biotic, solar gain PRE-FOSSIL

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DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) PRE-FOSSIL

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DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain PRE-FOSSIL

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DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain functions: (fuel > food, space heating) PRE-FOSSIL

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DIRECT vectorisation: biotic, solar gain production: ... eh? (> fuel industry) applications: fires, solar gain functions: (fuel > food, space heating) conservation: massing, insulation, orientation PRE-FOSSIL

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PRE-FOSSIL

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INDIRECT PRE-FOSSIL

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INDIRECT animal transport PRE-FOSSIL

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INDIRECT animal transport local food PRE-FOSSIL

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INDIRECT animal transport local food local and natural materials PRE-FOSSIL

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INDIRECT animal transport local food local and natural materials spatial engineering rather than technology PRE-FOSSIL

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INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects PRE-FOSSIL

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INDIRECT animal transport local food local and natural materials spatial engineering rather than technology systems not objects culture not consumers PRE-FOSSIL

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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

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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

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FOSSIL

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DIRECT FOSSIL

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DIRECT vectorisation: fossils, electricity FOSSIL

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DIRECT vectorisation: fossils, electricity production: fossil/mineral burning FOSSIL

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DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics FOSSIL

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DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics functions: ... whatevs FOSSIL

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DIRECT vectorisation: fossils, electricity production: fossil/mineral burning applications: transport, food, power, plastics functions: ... whatevs conservation: ... eh? FOSSIL

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FOSSIL

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INDIRECT FOSSIL

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INDIRECT machine transport FOSSIL

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INDIRECT machine transport chemical-machine food FOSSIL

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INDIRECT machine transport chemical-machine food distant food and material supply chains FOSSIL

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INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering FOSSIL

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INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems FOSSIL

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INDIRECT machine transport chemical-machine food distant food and material supply chains technology not spatial engineering objects not systems consumers not culture FOSSIL

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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

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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

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ENERGY & WASTE

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ENERGY & WASTE WHY IS IT IMPORTANT?

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ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT?

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ENERGY & WASTE WHY IS IT IMPORTANT? WHAT IS IT? HOW DOES A CITY DO IT?

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POST-FOSSIL

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PRE-FOSSIL SOLAR? POST-FOSSIL

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PRE-FOSSIL SOLAR? NEO-FOSSIL? POST-FOSSIL

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POST-FOSSIL

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DIRECT POST-FOSSIL

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DIRECT vectorisation: solar vs ? POST-FOSSIL

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DIRECT vectorisation: solar vs ? production: how? integration? why? POST-FOSSIL

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DIRECT vectorisation: solar vs ? production: how? integration? why? applications: what actually needs energy? POST-FOSSIL

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DIRECT vectorisation: solar vs ? production: how? integration? why? applications: what actually needs energy? conservation: why is this so hard? POST-FOSSIL

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POST-FOSSIL

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INDIRECT POST-FOSSIL

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INDIRECT transport: why travel? how travel? POST-FOSSIL

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INDIRECT transport: why travel? how travel? food: local? regional? POST-FOSSIL

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INDIRECT transport: why travel? how travel? food: local? regional? natural materials: what are natural materials? POST-FOSSIL

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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

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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

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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

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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

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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

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WASTE

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WHY?

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POLLUTION

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POLLUTION human and non-human wellbeing

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POLLUTION human and non-human wellbeing RESOURCES

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POLLUTION human and non-human wellbeing RESOURCES human and non-human survival

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POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?!

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POLLUTION human and non-human wellbeing RESOURCES human and non-human survival justice?! hello?! REVEALS SYSTEM DESIGN

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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

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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

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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

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WHAT

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[Pollution, waste] is matter out of place. MARY DOUGLAS, 1966

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BIOTA

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BIOTA plant biomass

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BIOTA plant biomass human and animal excreta

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BIOTA plant biomass human and animal excreta animal biomass

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BIOTA plant biomass human and animal excreta animal biomass MINERALS

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures suspensions

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BIOTA plant biomass human and animal excreta animal biomass MINERALS metals ceramics other OTHER composites mixtures suspensions synthetic fluids

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SCIENCE

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SCIENCE ELEMENTS

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SCIENCE ELEMENTS COMPOUNDS

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SCIENCE ELEMENTS COMPOUNDS MIXTURES

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CRADLE TO CRADLE SCIENCE ELEMENTS COMPOUNDS MIXTURES

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CRADLE TO CRADLE TECHNICAL CYCLE SCIENCE ELEMENTS COMPOUNDS MIXTURES

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CRADLE TO CRADLE TECHNICAL CYCLE BIO CYCLE SCIENCE ELEMENTS COMPOUNDS MIXTURES

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HOW?

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PRE-FOSSIL

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DIRECT PRE-FOSSIL

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DIRECT production: excreta, mineral industrial waste PRE-FOSSIL

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DIRECT production: excreta, mineral industrial waste minimisation: economic constraints PRE-FOSSIL

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DIRECT production: excreta, mineral industrial waste minimisation: economic constraints reclamation: biotic, technical PRE-FOSSIL

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PRE-FOSSIL

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INDIRECT PRE-FOSSIL

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INDIRECT local disposal PRE-FOSSIL

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INDIRECT local disposal local recovery PRE-FOSSIL

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INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths PRE-FOSSIL

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INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths ‘design’ for biocycle PRE-FOSSIL

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INDIRECT local disposal local recovery limited non-biotic, non-mineral waste - composites, synths ‘design’ for biocycle ‘design’ for technical cycle PRE-FOSSIL

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FOSSIL

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DIRECT FOSSIL

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DIRECT production: vast complexity and pollution of waste-streams FOSSIL

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DIRECT production: vast complexity and pollution of waste-streams composites, synthetics FOSSIL

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DIRECT production: vast complexity and pollution of waste-streams composites, synthetics minimisation: economic constraints?? FOSSIL

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DIRECT production: vast complexity and pollution of waste-streams composites, synthetics minimisation: economic constraints?? reclamation: downcycling FOSSIL

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FOSSIL

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INDIRECT FOSSIL

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INDIRECT offsite disposal FOSSIL

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INDIRECT offsite disposal recovery-for-offsite-disposal FOSSIL

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INDIRECT offsite disposal recovery-for-offsite-disposal massive non-biotic, non-mineral waste - composites, synths FOSSIL

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INDIRECT offsite disposal recovery-for-offsite-disposal massive non-biotic, non-mineral waste - composites, synths no design for biocycle FOSSIL

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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

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POST-FOSSIL

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PRE-FOSSIL SOLAR? POST-FOSSIL

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PRE-FOSSIL SOLAR? NEO-FOSSIL? POST-FOSSIL

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POST-FOSSIL

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DIRECT POST-FOSSIL

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DIRECT production: why? what? POST-FOSSIL

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DIRECT production: why? what? minimisation: economic constraints? > POLICY POST-FOSSIL

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DIRECT production: why? what? minimisation: economic constraints? > POLICY reclamation: economic opportunities! POST-FOSSIL

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POST-FOSSIL

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INDIRECT POST-FOSSIL

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INDIRECT disposal: ... eh? POST-FOSSIL

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INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale POST-FOSSIL

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INDIRECT disposal: ... eh? recovery: designed for recovery at appropriate scale non-biotic, non-mineral waste - composites, synths: hard design, yeah! POST-FOSSIL

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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

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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

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ASSIGNMENT

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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

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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

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why, what, how KTH UPD Compositions jm@resourcevision.se 101122 ENERGY & WASTE