Sustainable construction : green building design and delivery /
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| Author / Creator: | Kibert, Charles J., author. |
|---|---|
| Edition: | Fifth edition. |
| Imprint: | Hoboken, NY : Wiley, [2022] ©2022 |
| Description: | 1 online resource |
| Language: | English |
| Subject: | |
| Format: | E-Resource Book |
| URL for this record: | http://pi.lib.uchicago.edu/1001/cat/bib/13690573 |
Table of Contents:
- <P>Preface</p> <p>Chapter 1 Introduction and Overview 1</p> <p>The Shifting Landscape of Green Buildings</p> <p>The Roots of Sustainable Construction</p> <p>The Vocabulary of Sustainable Development and Sustainable Construction</p> <p>Rationale for High-Performance Buildings</p> <p>State and Local Green Building Initiatives</p> <p>Green Building Progress and Obstacles</p> <p>Trends in High-Performance Green Building</p> <p>Book Organization</p> <p>Case Study: Bloomberg European Headquarters</p> <p>Summary and Conclusions</p> <p>Part I Green Building Foundations </p> <p>Chapter 2 Background </p> <p>The Driving Forces for Sustainable Construction</p> <p>Ethics and Sustainability</p> <p>Basic Concepts and Vocabulary</p> <p>Major Environmental and Resource Concerns</p> <p>The Green Building Movement</p> <p>Case Study: OWP 11, Stuttgart, Germany</p> <p>Summary and Conclusions</p> <p>Chapter 3 Ecological Design </p> <p>Design Versus Ecological Design</p> <p>Contemporary Ecological Design</p> <p>Key Green Building Publications: Early 1990s</p> <p>Key Thinking about Ecological Design</p> <p>Evolving the Concept of Ecological Design</p> <p>Thermodynamics: Limits on Recycling and the Dissipation of Materials</p> <p>Case Study: Kroon Hall, Yale University, New Haven, Connecticut</p> <p>Synthesis</p> <p>Summary and Conclusions</p> <p>Part II Assessing High-Performance Green Buildings </p> <p>Chapter 4 Green Building Assessment </p> <p>Purpose of Green Building Assessment Systems</p> <p>Major Green Building Assessment Systems Used in the US</p> <p>International Building Assessment Systems</p> <p>Summary and Conclusions</p> <p>Chapter 5 The US Green Building Council LEED Building Rating System </p> <p>Brief History of LEED</p> <p>Structure of the LEED Suite of Building Rating Systems</p> <p>LEED Credentials</p> <p>LEED v4.1 Structure and Process</p> <p>Green Building Certification Institute Relationship to the USGBC and LEED</p> <p>LEED Certification Process</p> <p>LEED Building Design and Construction Rating System</p> <p>Regional Priority</p> <p>Case Study: Stephen C. O'Connell Center at UF in Gainesville, Florida</p> <p>Summary and Conclusions</p> <p>Chapter 6 The Green Globes Building Assessment System </p> <p>Green Globes Building Rating Tools</p> <p>Structure of Green Globes for New Construction</p> <p>Section 1: Project Management</p> <p>Section 2: Site</p> <p>Section 3: Energy</p> <p>Section 4: Water</p> <p>Section 5: Materials</p> <p>Section 6: Indoor Environment</p> <p>Green Globes Assessment and Certification Process</p> <p>Green Globes Professional Credentials</p> <p>Case Study: Health Sciences Building, St. Johns River State College,</p> <p>St. Augustine, Florida</p> <p>Summary and Conclusions</p> <p>Part III Green Building Design </p> <p>Chapter 7 The Green Building Design Process </p> <p>Conventional versus Green Building Delivery Systems</p> <p>High-Performance Green Building Delivery System</p> <p>Executing the Green Building Project</p> <p>Owner Issues In High-Performance Green Building Projects</p> <p>Setting Priorities And Making Other Key Initial Decisions</p> <p>Selecting The Green Building Team</p> <p>Role Of The Leed Accredited Professional Or Green Globes Professional In The Process</p> <p>Integrated Design Process</p> <p> Role of the Charrette in the Design Process</p> <p>Green Building Documentation Requirements</p> <p>LEED Documentation</p> <p>Green Globes Documentation</p> <p>Case Study: Theaterhaus, Stuttgart, Germany</p> <p>Summary and Conclusions</p> <p>Chapter 8 The Sustainable Site and Landscape </p> <p>Land and Landscape Approaches for Green Buildings</p> <p>Land Use Issues</p> <p>Sustainable Landscapes</p> <p>Green, or living, roofs</p> <p>Vertical landscaping</p> <p>Enhancing ecosystems</p> <p>Enhancing Ecosystems</p> <p>Stormwater Management</p> <p>Low-Impact Development</p> <p>Heat Island Mitigation</p> <p>Light Trespass and Pollution Reduction</p> <p>Assessment of Sustainable Sites: The Sustainable Sites Initiative</p> <p>Case Study: Iowa Utilities Board/Consumer Advocate Office</p> <p>Summary and Conclusions</p> <p>Chapter 9 Low-Energy Building Strategies </p> <p>Building Energy Issues</p> <p>High-Performance Building Energy Design Strategies</p> <p>HVAC Systems</p> <p>Water-Heating Systems</p> <p>Electrical Power System Components</p> <p>Innovative Energy Optimization Strategies</p> <p>Smart Buildings and Energy Management Systems (EMS)</p> <p>Ozone Depleting Chemicals in HVAC Systems</p> <p>Case Study: The Pertamina Energy Tower
- A Primer on Sustainable Skyscraper Design</p> <p>Chapter 10 Built Environment Hydrologic Cycle </p> <p>Global Water Resource Depletion</p> <p>Hydrologic Cycle Terminology</p> <p>Benefits of Water Efficiency</p> <p>High-Performance Building Hydrologic Cycle Strategy</p> <p>Building Plumbing Fixture and Controls</p> <p>Nonportable Water Sources</p> <p>Wastewater Strategies</p> <p>Baseline Water Model Example</p> <p>Use of Low-Flow Fixture Strategy</p> <p>Use of Alternative Water Sources Strategy</p> <p>Case Study: Lott Clean Water Alliance, Olympia, Washington</p> <p>Blackwater Case Study: Blackwater Recycling System, Salesforce Tower, San Francisco</p> <p>Summary and Conclusions</p> <p>Chapter 11 Closing Materials Loops </p> <p>The Challenge of Materials and Product Selection</p> <p>Selecting Building Materials and Products with a Focus on A Closed-Loop Materials System</p> <p>Life Cycle Assessment</p> <p>Materials and Product Certification</p> <p>Key and Emerging Construction Materials and Products</p> <p>Case Study Of Closing The Loop: Ecoworx® Carpet Tiles</p> <p>Design for Deconstruction and Disassembly</p> <p>Case Study: Project XX Office Building, Delft, Netherlands</p> <p>Summary and Conclusions</p> <p>Chapter 12 Built Environment Carbon Footprint </p> <p>Human Impact on the Biogeochemical Carbon Cycle</p> <p>Climate Change and the Carbon Cycle</p> <p>Climate Change Mitigating</p> <p>Defining the Carbon Footprint of The Built Environment</p> <p>Reducing the Carbon Footprint of the Built Environment</p> <p>Focusing on Mitigating Project Climate Change Impact</p> <p>Carbon Neutrality and Its Applicability to Buildings</p> <p>Focusing on Mitigating Project Climate Change Impacts</p> <p>Carbon Neutrality Case Study: The Hong Kong Zero Carbon Building</p> <p>Carbon Neutrality Case Study: Glaxosmithkline Carbon Neutral Laboratory for Sustainable Chemistry (Nottingham, Uk)</p> <p>Carbon Footprint Case Study: Rinker Hall, University of Florida </p> <p>Chapter 13 Indoor Environmental Quality </p> <p>Indoor Environmental Quality: The Issues</p> <p>Integrated IEQ Design</p> <p>Addressing the Main Components of Integrated IEQ Design</p> <p>HVAC Systems and IEQ</p> <p>Emissions from Building Materials</p> <p>The WELL and FITWEL Building Standards</p> <p>Summary and Conclusions</p> <p>Part IV Green Building Implementation </p> <p>Chapter 14 Construction Operations and Commissioning</p> <p>Site Protection Planning</p> <p>Managing Indoor Air Quality during Construction</p> <p>Construction Materials Management</p> <p>Construction and Demolition Waste Management</p> <p>Commissioning</p> <p>Summary and Conclusions</p> <p>Chapter 15 Green Building Economics </p> <p>General Approach</p> <p>The Business Case for High-Performance Green Buildings</p> <p>Economics of Green Building</p> <p>Quantifying Green Building Benefits</p> <p>Managing First Costs</p> <p>Tunneling through the Cost Barrier</p> <p>Summary and Conclusions</p> <p>Chapter 16 Resilience Resilience in the Context of Sustainable Construction</p> <p>Resilience Concepts and Scope</p> <p>Codes and Standards for Built Environment Resilience</p> <p>Designing Resilient Buildings</p> <p>Green Building Assessment and Resilience