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KTH CMMMASS - Critical Methods Metrics and Major Techniques - Architectural Sustainability Studio

KTH CMMMASS - Critical Methods Metrics and Major Techniques - Architectural Sustainability Studio

John Manoochehri

January 21, 2014
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  1. 1 Urban Villa Row House Courtyard Highrise House High Rise

    Office Educational Industrial Rural Dwelling Mixed Use Urban (NON-CIRCULAR) TYPOLOGY WHEEL OF FORTUNE
  2. 2 CMMASS Approach CMMMASS Approach 0 - Certainties vs Uncertainties

    - Restrictions vs Freedom - Material Framework R/U - Analysis vs Creativty vs Discovery - Backward in classical thought vs Forward to green visions - Metrics, Methods, Major Techs - Better reflexes 0.1 Sustainable architecture - architecture with new/old constraints 0.2 Fossil Paradigm 0.3 Sustainability reflections - Mickey Mouse vs Nested vs R/U - R/U - Environment vs Society - Sustainability of Objects vs Systems - Incomensurability of Optimal Sustainability
  3. 550ppm CO2e 250ppm CO2e 2 Certainties We’re going down Archi-urbanism

    is at the centre, twice 2 Unknowns Free-fall or parachute?
  4. 550ppm CO2e 250ppm CO2e 2 Certainties We’re going down Archi-urbanism

    is at the centre, twice 2 Unknowns Free-fall or parachute? Are you guys designing parachutes, or what?
  5. 550ppm CO2e 250ppm CO2e 2 Certainties We’re going down Archi-urbanism

    is at the centre, twice 2 Unknowns Free-fall or parachute? Are you guys designing parachutes, or what?
  6. 550ppm CO2e 250ppm CO2e C-MMMASS Parachute-making class Restrictions vs Freedom

    Recruitment Not to an ideological project To an analysis, creativity, and discovery proje
  7. 550ppm CO2e 250ppm CO2e C-MMMASS Parachute-making class Restrictions vs Freedom

    Recruitment Not to an ideological project To an analysis, creativity, and discovery proje Reaching
  8. 550ppm CO2e 250ppm CO2e C-MMMASS Parachute-making class Restrictions vs Freedom

    Recruitment Not to an ideological project To an analysis, creativity, and discovery proje Reaching Not towards an idealised green future
  9. 550ppm CO2e 250ppm CO2e C-MMMASS Parachute-making class Restrictions vs Freedom

    Recruitment Not to an ideological project To an analysis, creativity, and discovery proje Reaching Not towards an idealised green future Backwards towards architecture’s roots
  10. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc
  11. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  12. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  13. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  14. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  15. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  16. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  17. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  18. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  19. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  20. METRICS Industry Tools - LEED, BREEAM Cardinal/Ordinal | Longitudinal |

    Aggregate MAJOR TECHNIQUES Overview | Class Choice Materials, Structures, Systems, Bio, Behaviour METHODS Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics | Systematics | Signatures
  21. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  22. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability?
  23. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability? Raw data (cardinal), Aggregate (ordinal/indexes), Lifecycle (longitudinal)
  24. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability? Raw data (cardinal), Aggregate (ordinal/indexes), Lifecycle (longitudinal) Problems?
  25. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability? Raw data (cardinal), Aggregate (ordinal/indexes), Lifecycle (longitudinal) Problems? Complexity vs Useability? Subjectivity? Information quality and quantity?
  26. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability? Raw data (cardinal), Aggregate (ordinal/indexes), Lifecycle (longitudinal) Problems? Complexity vs Useability? Subjectivity? Information quality and quantity? Priority?
  27. Why measure sustainability? To see if the object/structure/action is better

    against the two sustainability constraints How measure sustainability? Raw data (cardinal), Aggregate (ordinal/indexes), Lifecycle (longitudinal) Problems? Complexity vs Useability? Subjectivity? Information quality and quantity? Priority? Role of designers? Integration of metrics into methods?
  28. R U

  29. R U

  30. N

  31. 19

  32. Social Discourse Programme/Brief Functional Decomposition vehicle > property > food

    > growth > mobility > space > nutrition > wealth > access accommodation health wellbeing Meta Programme Social Discourse Components Hard Programme Buildings, Infrastructure Soft Programme Aesthetics, Mood, Culture Politics Identity Inclusion Crime Environment Nature Ethics Risk Cost Pollution Reduction Stock Conservation Nature Preservation Sufficiency 

 

 Compassion S E MATERIAL SPATIAL SOCIAL PERSONAL OBJECTS ACTIONS STRUCTURES Resource 

Efficiency Functional 

Efficiency Use 

Efficiency Welfare 

Efficiency User Skills Development End-use services D Simultaneous / Sequential Spatial F Simultaneous / Sequential Object F Elimination of Negative F Process 

Efficiency Product 

Efficiency Localisation Cycling Systems Durability Simultaneous / Sequential UC Social Discourse
  33. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind
  34. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave
  35. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro
  36. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro
  37. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange
  38. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange
  39. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange
  40. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange
  41. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange + Moon + Planet Core Tidal Geothermal
  42. Solar Energy Paradigm Direct Thermal Gain Biomass (Primary Production) Animal

    Biomass > Animal Heat Human Biomass > Human Heat Wind Wave Hydro Ground/Water Source Heat Exchange + Moon + Planet Core Tidal Geothermal + Fossils + Minerals + Wacky Biota
  43. Fossil Energy Paradigm Cheap Energy Cheap Transport Cheap Food Cheap

    Plastics Cheap Electronics & Technology Cheap Communication & Innovation
  44. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? SUSTAINABLE - SYSTEMS vs OBJECTS
  45. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution SUSTAINABLE - SYSTEMS vs OBJECTS
  46. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? SUSTAINABLE - SYSTEMS vs OBJECTS
  47. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) SUSTAINABLE - SYSTEMS vs OBJECTS
  48. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) Future Use? SUSTAINABLE - SYSTEMS vs OBJECTS
  49. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) Future Use? > Positive & negative future use (waste >design for recycling/durability) SUSTAINABLE - SYSTEMS vs OBJECTS
  50. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) Future Use? > Positive & negative future use (waste >design for recycling/durability) SUSTAINABLE - SYSTEMS vs OBJECTS
  51. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) Future Use? > Positive & negative future use (waste >design for recycling/durability) SCALE & PROBABILITY ! (system view > objects) SUSTAINABLE - SYSTEMS vs OBJECTS
  52. Systems Within constraints, over repeating time unit (90% by 2050)

    Objects Equal resource allocation? > Power > Benefit distribution Conditioned behaviour by objects? > Positive and negative conditioning! (cars > bicycles) Future Use? > Positive & negative future use (waste >design for recycling/durability) SCALE & PROBABILITY ! (system view > objects) 90% by 2050 SUSTAINABLE - SYSTEMS vs OBJECTS
  53. What is architecture? Optimisation of desirables vs constraints What is

    sustainability? New constraints What is sustainable architecture?
  54. What is architecture? Optimisation of desirables vs constraints What is

    sustainability? New constraints What is sustainable architecture? Architecture for a world with new constraints
  55. What is architecture? Desirables: Programme, Aesthetics, Social, etc Constraints: Cost,

    Structural, Contextual, etc Optimisation: The design process, ‘trading-off’
  56. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value!
  57. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value! Additional priority of environmental constraints: Complexity!
  58. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value! Additional priority of environmental constraints: Complexity! Rigour of social constraints?
  59. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value! Additional priority of environmental constraints: Complexity! Rigour of social constraints? Primacy of social desirables!
  60. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value! Additional priority of environmental constraints: Complexity! Rigour of social constraints? Primacy of social desirables! Political character of social constraints/desirables
  61. What is sustainability? Environmental constraints: Biophysical limits, Ethical limits Other

    constraints?! Essential priority of environmental constraints: Time! Matter before Value! Additional priority of environmental constraints: Complexity! Rigour of social constraints? Primacy of social desirables! Political character of social constraints/desirables
  62. What is sustainable architecture? Optimisation of desirables vs (new) constraints

    Sustainable architecture = (Good, Great?) Architecture Translation of constraints into desirables: Efficiency?! Nature?!
  63. What is (sustainable) architecture? Disconnecting from fossil ‘opportunities’ Making desirables

    out of constraints (Re)-connecting to solar opportunities and constraints
  64. Raw Data (Cardinal): Carbon, Energy, Resources, Nature Aggregate Data (Ordinal):

    Footprint, Assessment Tools Supply-chain (Longitudinal): LCA METRICS
  65. Raw Data (Cardinal): Carbon, Energy, Resources, Nature Aggregate Data (Ordinal):

    Footprint, Assessment Tools Supply-chain (Longitudinal): LCA METRICS
  66. Raw Data (Cardinal): Carbon, Energy, Resources, Nature Aggregate Data (Ordinal):

    Footprint, Assessment Tools Supply-chain (Longitudinal): LCA Industry Tools: LEED, BREEAM, BIM/LCA/PLD METRICS
  67. Raw Data (Cardinal): Carbon, Energy, Resources, Nature Aggregate Data (Ordinal):

    Footprint, Assessment Tools Supply-chain (Longitudinal): LCA Industry Tools: LEED, BREEAM, BIM/LCA/PLD METRICS
  68. METRICS Raw Data (Cardinal) Carbon, Energy, Resources, Nature Others? Measurement?

    Sustainability? Decisions? ISSUES Information Lack? > Gaps in available/convenient/reliable information?
  69. METRICS Raw Data (Cardinal) Carbon, Energy, Resources, Nature Others? Measurement?

    Sustainability? Decisions? ISSUES Information Lack? > Gaps in available/convenient/reliable information? Lack of knowledge of limits? > Focus on main parameters & trends?
  70. METRICS Raw Data (Cardinal) Carbon, Energy, Resources, Nature Others? Measurement?

    Sustainability? Decisions? ISSUES Information Lack? > Gaps in available/convenient/reliable information? Lack of knowledge of limits? > Focus on main parameters & trends? Indicator Ease & Applicability > Indexes/Aggregates
  71. METRICS Aggregates (Ordinal; & Cardinal?) Carbon, Energy Others? Measurement? Eco-footprint

    Indexes? ISSUES Quantification: Cardinal vs Ordinal? > Groups of cardinal metrics? Credibility: Who believes this stuff? > What is their real use (marketing)?
  72. METRICS Aggregates (Ordinal; & Cardinal?) Carbon, Energy Others? Measurement? Eco-footprint

    Indexes? ISSUES Quantification: Cardinal vs Ordinal? > Groups of cardinal metrics? Credibility: Who believes this stuff? > What is their real use (marketing)? Governance: Who decides this stuff? > Can architects invent their own?
  73. METRICS Aggregates (Ordinal; & Cardinal?) Carbon, Energy Others? Measurement? Eco-footprint

    Indexes? ISSUES Quantification: Cardinal vs Ordinal? > Groups of cardinal metrics? Credibility: Who believes this stuff? > What is their real use (marketing)? Governance: Who decides this stuff? > Can architects invent their own? Sustainability: Is an A-grade really about sustainability? > Or what?
  74. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement?
  75. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement? Sustainability? Decisions?
  76. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement? Sustainability? Decisions? ISSUES
  77. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement? Sustainability? Decisions? ISSUES Partitioning? > Where is the boundary of responsibility for any object?
  78. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement? Sustainability? Decisions? ISSUES Partitioning? > Where is the boundary of responsibility for any object? Functional Unit? > Measuring what really matters?
  79. METRICS Supply Chain Data (Longitudinal) LCA using e.g. Carbon, Energy,

    Resources, Nature Other inputs to LCA? Measurement? Sustainability? Decisions? ISSUES Partitioning? > Where is the boundary of responsibility for any object? Functional Unit? > Measuring what really matters? Information/Subjectivity? > Standard cardinal/ordinal problems
  80. 36

  81. 36

  82. 37 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.
  83. METHODS What is architectural method? Beyond random squishing together of

    variables, consider metrics, then functional recomposition of programme, then signature moves
  84. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints.
  85. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method?
  86. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it?
  87. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions.
  88. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process
  89. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process What is sustainable architecture design method?
  90. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process What is sustainable architecture design method? How to avoid sustainability constraints just being ‘one’ constraint, and then getting sidelined?
  91. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process What is sustainable architecture design method? How to avoid sustainability constraints just being ‘one’ constraint, and then getting sidelined? Find inherent hiearchy of constraints, align sustainability features with it.
  92. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process What is sustainable architecture design method? How to avoid sustainability constraints just being ‘one’ constraint, and then getting sidelined? Find inherent hiearchy of constraints, align sustainability features with it. Find priority of issues for site
  93. Use of metrics? How are these integrated into design method?

    Start by actually defining constraints. What is architectural design method? Well, what is it? Architecture has got away with weak constraint defintiions. Architecture method is process What is sustainable architecture design method? How to avoid sustainability constraints just being ‘one’ constraint, and then getting sidelined? Find inherent hiearchy of constraints, align sustainability features with it. Find priority of issues for site Generate systematic process
  94. 41

  95. 41

  96. 42 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.
  97. R U ANALYSIS CREATIVITY M E T R I C

    S T E C H N I Q U E S M E T H O D
  98. R U ANALYSIS CREATIVITY M E T R I C

    S T E C H N I Q U E S M E T H O D
  99. R U ANALYSIS CREATIVITY M E T R I C

    S T E C H N I Q U E S M E T H O D
  100. R U ANALYSIS CREATIVITY M E T R I C

    S T E C H N I Q U E S M E T H O D
  101. R U M E T R I C S T

    E C H N I Q U E S M E T H O D
  102. R U M E T R I C S T

    E C H N I Q U E S M E T H O D FORM-FINDING
  103. R U M E T R I C S T

    E C H N I Q U E S M E T H O D FORM-FINDING FORM-GIVING
  104. R U M E T R I C S T

    E C H N I Q U E S M E T H O D FORM-FINDING FORM-GIVING PRINCIPLES
  105. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  106. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  107. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  108. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  109. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE
  110. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE
  111. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE PROCESS CHARACTER
  112. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE PROCESS CHARACTER DISCOVERY
  113. 10. HE pro 6 7 8 9 10 2 3

    4 5 based es of et which d thin arth’s One P court an ini engag speci The in repre Group
  114. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step
  115. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  116. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  117. 58

  118. Social Discourse Programme/Brief Functional Decomposition vehicle > property > food

    > growth > mobility > space > nutrition > wealth > access accommodation health wellbeing Meta Programme Social Discourse Components Hard Programme Buildings, Infrastructure Soft Programme Aesthetics, Mood, Culture Politics Identity Inclusion Crime Environment Nature Ethics Risk Cost Pollution Reduction Stock Conservation Nature Preservation Sufficiency 

 

 Compassion S E MATERIAL SPATIAL SOCIAL PERSONAL OBJECTS ACTIONS STRUCTURES Resource 

Efficiency Functional 

Efficiency Use 

Efficiency Welfare 

Efficiency User Skills Development End-use services D Simultaneous / Sequential Spatial F Simultaneous / Sequential Object F Elimination of Negative F Process 

Efficiency Product 

Efficiency Localisation Cycling Systems Durability Simultaneous / Sequential UC Social Discourse
  119. !

  120. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step
  121. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  122. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  123. Methods Classical architectural method? > Priorities > Palette (vs Process)

    > Mysteries Sustainable architecture required features? > Systematics > Hierarchy > Priorities > Palette (vs Process) > Mysteries Industry Methods? > Application? > Crap? New Methods? > Starting Points > Development?
  124. goods) 3. SUSTAINABLE TRANSPORT – try to reduce the amount

    you travel, an for sustainable alternatives to private car and air travel 4. SUSTAINABLE MATERIALS – actively seek out local and sustainable m eg FSC wood products 5. LOCAL AND SUSTAINABLE FOOD – buy more local, seasonal and org food, MSC-certified fish, and reduce the amount of intensively-reared a processed meat and dairy products 6. SUSTAINABLE WATER – eliminate wasteful water consumption, and irr responsibly 7. HABITATS & WILDLIFE – help to preserve and enhance wildlife habitats example by eliminating the use of dangerous chemicals outdoors 8. CULTURE & HERITAGE – respect people’s traditions, promote local ide and help create a new culture of sustainability 9. EQUITY & FAIR TRADE – support fairly traded products and ethical investment 10. HEALTH & HAPPINESS – walk and cycle more, lead a healthier lifestyle promote well-being in your community. bout O NE NET LIVING® 6 7 8 9 10 2 3 4 5 is based ciples of Planet in which lead s within he Earth’s e visit ut 1% of r about of every challenge there is an opportunity. There is real money to be made in offering solutions to problems. One Planet Products (OPP), has published a new brochu courtesy of one of its members, Rydon Construction. OP an initiative which aims to make it easier for businesses engaged in residential and refurbishment work in the UK specify and use sustainable building products. The initiative’s advisory board includes representatives from BioRegional Development Group, WWF UK, the Building Research Establishment, SEEDA and the UK Green
  125. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  126. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  127. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  128. DELIVERY INITIATION PREPARATION DESIGN univ’l hierarchy authorship context priorities experience

    PROPOSAL BRIEF FORM FINAL DRAFT site! priorities experience FORM-FINDING FORM-GIVING
  129. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE
  130. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE
  131. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE PROCESS CHARACTER
  132. PROCESS ACTION SITE SELECTION AGGREGATION ITERATION COMMUNICATION COLLABORATION MANAGEMENT DESIGN

    / SCIENCE GENERATIVITY ANALYSIS HIERARCHY PRIORITY CREATIVITY AUTHORSHIP EXPERIENCE PROCESS CHARACTER DISCOVERY
  133. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step
  134. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  135. Methods Industry Tools - EVA/SPEAR, OPL, SID, etc Metrics |

    Measure by Measure Systematics | Step by Step Signatures | Piece by Piece
  136. 71

  137. Social Discourse Programme/Brief Functional Decomposition vehicle > property > food

    > growth > mobility > space > nutrition > wealth > access accommodation health wellbeing Meta Programme Social Discourse Components Hard Programme Buildings, Infrastructure Soft Programme Aesthetics, Mood, Culture Politics Identity Inclusion Crime Environment Nature Ethics Risk Cost Pollution Reduction Stock Conservation Nature Preservation Sufficiency 

 

 Compassion S E MATERIAL SPATIAL SOCIAL PERSONAL OBJECTS ACTIONS STRUCTURES Resource 

Efficiency Functional 

Efficiency Use 

Efficiency Welfare 

Efficiency User Skills Development End-use services D Simultaneous / Sequential Spatial F Simultaneous / Sequential Object F Elimination of Negative F Process 

Efficiency Product 

Efficiency Localisation Cycling Systems Durability Simultaneous / Sequential UC Social Discourse
  138. 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 75
  139. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  140. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  141. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  142. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  143. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  144. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  145. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  146. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  147. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  148. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  149. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  150. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  151. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  152. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  153. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  154. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  155. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  156. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  157. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  158. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  159. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  160. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  161. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures Insulation techniques MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  162. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures Insulation techniques Heat-pumps and Heat-exchangers MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  163. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures Insulation techniques Heat-pumps and Heat-exchangers Building design for district heating/ CHP MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  164. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures Insulation techniques Heat-pumps and Heat-exchangers Building design for district heating/ CHP MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  165. MATERIALS Biodegradeable materials Recycled materials Materials recycling systems Advanced composites

    Materials for durability and long-term value STRUCTURES Modular/disassemblable structures Tensile structures Parametric and other super-computed stuff Green skyscrapers Solar orientation design Solar thermal heating Solar lighting techniques Thermal massing Sustainable Ventilation/Air-cooling Building-integrated Photovoltaics Design for modular/multi-use Grey-water systems Sustainable fixtures Insulation techniques Heat-pumps and Heat-exchangers Building design for district heating/ CHP MAJOR TECHNIQUES - MATERIALS & STRUCTURES
  166. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  167. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  168. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  169. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  170. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  171. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  172. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  173. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  174. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  175. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  176. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  177. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  178. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  179. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  180. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  181. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY Functional landscaping: Wind, Sound, Pollution, Climate, Food, Fibre, Other MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  182. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY Functional landscaping: Wind, Sound, Pollution, Climate, Food, Fibre, Other Green roofs/facades MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  183. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY Functional landscaping: Wind, Sound, Pollution, Climate, Food, Fibre, Other Green roofs/facades Nature for recreation MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  184. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY Functional landscaping: Wind, Sound, Pollution, Climate, Food, Fibre, Other Green roofs/facades Nature for recreation Advanced nature conservation MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO
  185. SYSTEMS Wind energy District heating/CHP Water harvesting/waste water treatment Waste

    management Food production and waste management Transport BEHAVIOUR Work/Leisure/Consumption Mobility Human-relations/Community Health/Mental-health/Soft-focus stuff Nature-Human interaction BIOLOGY Functional landscaping: Wind, Sound, Pollution, Climate, Food, Fibre, Other Green roofs/facades Nature for recreation Advanced nature conservation MAJOR TECHNIQUES - SYSTEMS, BEHAVIOUR, BIO