Carbon : a field manual for building designers / Matti Kuittinen, Alan Organschi and Andrew Ruff.

By: Kuittinen, Matti [author.]
Contributor(s): Organschi, Alan [author.] | Ruff, Andrew [author.]
Language: English Publisher: Hoboken, New Jersey : Wiley, [2022]Description: 1 online resource : illustrationsContent type: text Media type: computer Carrier type: online resourceISBN: 9781119720768; 9781119720775; 111972077X; 9781119720829; 1119720826; 9781119720867; 1119720869Subject(s): Carbon | Construction industry | Climatic changesGenre/Form: Electronic books.Additional physical formats: Print version:: CarbonDDC classification: 620.1/93 LOC classification: TA455.C3 | K85 2022Online resources: Full text available at Wiley Online Library Click here to view
Contents:
Table of Contents Preface viii Chapter 1 Carbon? 2 Our Carbon Challenge 6 Building Elements 6 King Carbon 7 A Global Carbon Budget 9 The Carbon Cycle in Building History 10 Carbon Flows in Building 12 Staunching the Flow 14 Time Management in Carbon Mitigation 17 Re-balancing the Planet: Agency and Opportunity 18 About This Book: An Overview 19 Chapter 2 Measuring Carbon Flows 22 Life Cycle Assessment: What’s in It for Building Designers? 25 The Fundamental Concepts 27 The Process of Life Cycle Assessment 37 The Production Stage 46 The Construction Stage 53 The Use Stage 61 Service Life 66 End-of-Life Stage 74 Results, Interpretation, and Comparison 81 The Streamlined Life Cycle Assessment for Buildings 83 Chapter 3 Case Studies in Decarbonization 86 Notes from the Field 89 How Were the Calculations Per formed? 90 Case Study 1 Common Ground High School 92 Architectural Objectives (by Gray Organschi Architecture) 93 Common Ground High School: Key Figures 100 Materials 100 Site and Ground Works 104 Foundations and Ground Floor 106 Structural Frame 108 Façades and External Decks 110 Roofs 112 Internal Dividers 114 Space Surfaces 116 Internal Fixtures 118 Building System Installations 120 Mitigation Potential from Materials and Systems 130 Energy-Related Emissions 131 Case Study 2: Puukuokka Housing Block 135 Architectural Objectives (by OOPEAA Office for Peripheral Architecture) 137 Puukuokka One: Key Figures 142 Site and Ground Works 146 Foundations and Ground Floor 148 Modular Units 150 Hallway 152 Façades 154 Roofs 156 Building Service Installations 158 Mitigation Potential from Materials and Systems 168 Energy 168 Comparison of the Case Studies 172 Comparison of the Emissions 176 Chapter 4 De-carbonizing Design 180 A Context of Externalities: Pre conditions of the Decarbonized Design Process 185 The Decarbonized Design Process 188 Phases of Decarbonized Building Design 190 The Pre-Design or Project Preparation Phase: Laying the Groundwork for Decarbonized Building Design 190 Selecting a Low-Carbon Site 192 Programming a Low-Carbon Building 195 Anticipating the Lifespan of a Building 196 The Conceptual or Schematic Design Phase 197 The Design Development Phase 201 Material Classes and Their Carbon Consequences 203 The Decarbonized Building Assembly 208 The Later Design Phases: Contract Documentation, Bidding and Negotiation, and Construction Administration 212 Principles of Decarbonized Design 213 Understanding Design Agency: Shifting Roles and Responsibilities 218 Chapter 5 Re-Forming the Anthropocene 220 Beyond Sustainable 223 Thinking Outside the Building’s Life Cycle 224 Re-forming the Anthropocene 231 The Anthropocene Re-formed 240 Acknowledgments 243 Glossary 244 References 248 Index 252
Summary: "The rapid increase in global carbon emissions over the past century has created a climate crisis that threatens to disrupt the world's cultural, economic, and social fabric. The building sector is responsible for well over half of the world's extraction and consumption of carbon-based material and hydrocarbon energy. If the current design and construction approach remains unchecked, and as the world's population growth continues to accelerate, the building sector's demand for raw material and energy for new construction will continue to exacerbate the atmospheric greenhouse gas concentrations."-- Provided by publisher.
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Includes bibliographical references and index.

Table of Contents

Preface viii

Chapter 1 Carbon? 2

Our Carbon Challenge 6

Building Elements 6

King Carbon 7

A Global Carbon Budget 9

The Carbon Cycle in Building History 10

Carbon Flows in Building 12

Staunching the Flow 14

Time Management in Carbon Mitigation 17

Re-balancing the Planet: Agency and Opportunity 18

About This Book: An Overview 19

Chapter 2 Measuring Carbon Flows 22

Life Cycle Assessment: What’s in It for Building Designers? 25

The Fundamental Concepts 27

The Process of Life Cycle Assessment 37

The Production Stage 46

The Construction Stage 53

The Use Stage 61

Service Life 66

End-of-Life Stage 74

Results, Interpretation, and Comparison 81

The Streamlined Life Cycle Assessment for Buildings 83

Chapter 3 Case Studies in Decarbonization 86

Notes from the Field 89

How Were the Calculations Per formed? 90

Case Study 1 Common Ground High School 92

Architectural Objectives (by Gray Organschi Architecture) 93

Common Ground High School: Key Figures 100

Materials 100

Site and Ground Works 104

Foundations and Ground Floor 106

Structural Frame 108

Façades and External Decks 110

Roofs 112

Internal Dividers 114

Space Surfaces 116

Internal Fixtures 118

Building System Installations 120

Mitigation Potential from Materials and Systems 130

Energy-Related Emissions 131

Case Study 2: Puukuokka Housing Block 135

Architectural Objectives (by OOPEAA Office for Peripheral Architecture) 137

Puukuokka One: Key Figures 142

Site and Ground Works 146

Foundations and Ground Floor 148

Modular Units 150

Hallway 152

Façades 154

Roofs 156

Building Service Installations 158

Mitigation Potential from Materials and Systems 168

Energy 168

Comparison of the Case Studies 172

Comparison of the Emissions 176

Chapter 4 De-carbonizing Design 180

A Context of Externalities: Pre conditions of the Decarbonized Design Process 185

The Decarbonized Design Process 188

Phases of Decarbonized Building Design 190

The Pre-Design or Project Preparation Phase: Laying the Groundwork for Decarbonized Building Design 190

Selecting a Low-Carbon Site 192

Programming a Low-Carbon Building 195

Anticipating the Lifespan of a Building 196

The Conceptual or Schematic Design Phase 197

The Design Development Phase 201

Material Classes and Their Carbon Consequences 203

The Decarbonized Building Assembly 208

The Later Design Phases: Contract Documentation, Bidding and Negotiation, and Construction Administration 212

Principles of Decarbonized Design 213

Understanding Design Agency: Shifting Roles and Responsibilities 218

Chapter 5 Re-Forming the Anthropocene 220

Beyond Sustainable 223

Thinking Outside the Building’s Life Cycle 224

Re-forming the Anthropocene 231

The Anthropocene Re-formed 240

Acknowledgments 243

Glossary 244

References 248

Index 252

"The rapid increase in global carbon emissions over the past century has created a climate crisis that threatens to disrupt the world's cultural, economic, and social fabric. The building sector is responsible for well over half of the world's extraction and consumption of carbon-based material and hydrocarbon energy. If the current design and construction approach remains unchecked, and as the world's population growth continues to accelerate, the building sector's demand for raw material and energy for new construction will continue to exacerbate the atmospheric greenhouse gas concentrations."-- Provided by publisher.

About the Author

Matti Kuittinen is an architect and professor of resource-efficient construction at Aalto University, Finland. As a policymaker, he has been developing whole life carbon assessment methods in Finland and the EU.

Alan Organschi is a design principal and a partner at Gray Organschi Architecture, in New Haven, CT and a senior member of the design and technology faculty of the Yale School of Architecture. He currently serves as the Director of the Innovation Lab of the global initiative Bauhaus Earth in Berlin, Germany.

Andrew Ruff (New Haven, CT) is the Research Coordinator of the Timber City Research Initiative, the Design Director at Gray Organschi Architecture, and a Visiting Critic at the Yale School of Architecture. He previously held appointments as a Visiting Assistant Professor at Wesleyan University and a Lecturer at the Georgia Institute of Technology, and served as part of the guest faculty at the Roger Williams School of Architecture, Art, and Historic Preservation, where he led design research into the applications of mass timber assemblies in mid-rise building applications. In addition to his professional degree in Architecture, he holds a Master of Environmental Design from the Yale School of Architecture and has lectured and published on the subject of mass timber buildings in the global carbon economy.

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