Richard Hyde, Nathan Groenhout, Francis Barram
Sustainable Retrofitting of Commercial Buildings
Warm Climates
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Richard Hyde, Nathan Groenhout, Francis Barram
Sustainable Retrofitting of Commercial Buildings
Warm Climates
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Presents a methodology for retrofitting existing commercial buildings in warm climates, using bioclimatic design
Presents a methodology for retrofitting existing commercial buildings in warm climates, using bioclimatic design
Produktdetails
- Produktdetails
- Verlag: Taylor & Francis Ltd (Sales)
- Seitenzahl: 512
- Erscheinungstermin: 20. September 2012
- Englisch
- Abmessung: 234mm x 156mm x 29mm
- Gewicht: 894g
- ISBN-13: 9781849712910
- ISBN-10: 1849712913
- Artikelnr.: 33946853
- Verlag: Taylor & Francis Ltd (Sales)
- Seitenzahl: 512
- Erscheinungstermin: 20. September 2012
- Englisch
- Abmessung: 234mm x 156mm x 29mm
- Gewicht: 894g
- ISBN-13: 9781849712910
- ISBN-10: 1849712913
- Artikelnr.: 33946853
Richard Hyde is Professor of Architectural Science at the University of Sydney, Australia. He is a registered architect engaged in the field of sustainable architectural design and research for buildings. He is currently Associate Dean Research, Editor-in-Chief of Architectural Science Review and Coordinator of the Sustainable Design Program, Faculty of Architecture Design and Planning, the University of Sydney. Nathan Groenhout is a consultant providing ecologically sustainable design, thermal and energy modelling, and research and development in building innovation. He is currently Adjunct Associate Professor in the Faculty of Architecture Design and Planning at the University of Sydney, Australia. In January 2002, he was a Visiting Research Scholar at the Institute of Fluid Science, Tohoku University, Japan whilst completing his PhD in numerical and experimental investigations of advanced solar water heaters. Francis Barram is an author and energy analyst with extensive experience in the design of sustainable building services and industrial processes. He is a member of the Australian Standards Energy Audit Standard Committee and founder and Managing Director of Ensight, an award winning national consultancy. Ken Yeang is an architect, planner and ecologist. He is the Chairman and Design Director of Llewelyn Davies Yeang (UK) and principal of T. R. Hamzah & Yeang (Malaysia). He is the Distinguished Plym Professor at the University of Illinois, USA, and has received international awards for his architecture and masterplans.
Part 1: Eco Design and Renovation 1.1. Introduction 1.2. Strategies for
Design of Our Green Built Environment 1.3. Eco Design for Retrofitting 1.4.
Summary Part 2: Bioclimatic Retrofitting 2.1. Introduction 2.2. Design
Solution Sets For Bioclimatic Retrofit 2.3. An Evidenced-Base Design (Ebd)
Approach For Selecting Retrofitting Strategies 2.4. Performance
Improvements Of Retrofitting Design Solution Sets 2.5. The Economic Case
for Retrofitting Using Bioclimatic Principles (Francis Barram) 2.6. Summary
Part 3: Technological and Behaviour Change for Performance Improvements
3.1 Introduction 3.2. Evaluation Typologies of Commercial Architecture For
Retrofitting 3.3. Retrofitting Comfort And Indoor Environmental Quality
3.4. Reviewing Benchmarking Systems For Retrofitting 3.5. Energy
Performance Rating Systems 3.6. Performance Modelling Tools 3.7. Monitoring
Building Performance 3.8. A Diagnostic Toolkit for Multi-Dimensional
Testing Of Built Internal Environments 3.9. Reducing Embodied Energy
Through Retrofit 3.10. A Checklist For Reducing Peak Energy Loads In
Buildings: A Staged Approach 3.11. Penalty-Reward-Pinch (PRP) Design In
Commercial Building Sustainability 3.12. Economic Drivers For Renovation
3.13. A Bioclimatic Design Approach For Retrofitting Commercial Office
Buildings 3.14. Summary Part 4: Retrofitting Exemplars 4.1. Introduction
4.2. PMM Building; Passive Systems Improvement 4.3. 55 St Andrews Place;
Turning a Sparrow into a Peacock 4.4. Bioclimatic Retrofitting Of
University Buildings 4.5. 503 Collins Street 4.6. Solar Thermal Retrofit
4.7. Benefits And Impacts Of Adjusting Cooling Set-Points In Brisbane 4.8.
Low Energy High-Rise 4.9. Refurbishment for Carbon Reduction and Occupant
Comfort - Insights from the Post Occupancy Evaluation of Three Office
Buildings 4.10. The Deakin University Waterfront Campus - Callista Offices
A Case Study
Design of Our Green Built Environment 1.3. Eco Design for Retrofitting 1.4.
Summary Part 2: Bioclimatic Retrofitting 2.1. Introduction 2.2. Design
Solution Sets For Bioclimatic Retrofit 2.3. An Evidenced-Base Design (Ebd)
Approach For Selecting Retrofitting Strategies 2.4. Performance
Improvements Of Retrofitting Design Solution Sets 2.5. The Economic Case
for Retrofitting Using Bioclimatic Principles (Francis Barram) 2.6. Summary
Part 3: Technological and Behaviour Change for Performance Improvements
3.1 Introduction 3.2. Evaluation Typologies of Commercial Architecture For
Retrofitting 3.3. Retrofitting Comfort And Indoor Environmental Quality
3.4. Reviewing Benchmarking Systems For Retrofitting 3.5. Energy
Performance Rating Systems 3.6. Performance Modelling Tools 3.7. Monitoring
Building Performance 3.8. A Diagnostic Toolkit for Multi-Dimensional
Testing Of Built Internal Environments 3.9. Reducing Embodied Energy
Through Retrofit 3.10. A Checklist For Reducing Peak Energy Loads In
Buildings: A Staged Approach 3.11. Penalty-Reward-Pinch (PRP) Design In
Commercial Building Sustainability 3.12. Economic Drivers For Renovation
3.13. A Bioclimatic Design Approach For Retrofitting Commercial Office
Buildings 3.14. Summary Part 4: Retrofitting Exemplars 4.1. Introduction
4.2. PMM Building; Passive Systems Improvement 4.3. 55 St Andrews Place;
Turning a Sparrow into a Peacock 4.4. Bioclimatic Retrofitting Of
University Buildings 4.5. 503 Collins Street 4.6. Solar Thermal Retrofit
4.7. Benefits And Impacts Of Adjusting Cooling Set-Points In Brisbane 4.8.
Low Energy High-Rise 4.9. Refurbishment for Carbon Reduction and Occupant
Comfort - Insights from the Post Occupancy Evaluation of Three Office
Buildings 4.10. The Deakin University Waterfront Campus - Callista Offices
A Case Study
Part 1: Eco Design and Renovation 1.1. Introduction 1.2. Strategies for
Design of Our Green Built Environment 1.3. Eco Design for Retrofitting 1.4.
Summary Part 2: Bioclimatic Retrofitting 2.1. Introduction 2.2. Design
Solution Sets For Bioclimatic Retrofit 2.3. An Evidenced-Base Design (Ebd)
Approach For Selecting Retrofitting Strategies 2.4. Performance
Improvements Of Retrofitting Design Solution Sets 2.5. The Economic Case
for Retrofitting Using Bioclimatic Principles (Francis Barram) 2.6. Summary
Part 3: Technological and Behaviour Change for Performance Improvements
3.1 Introduction 3.2. Evaluation Typologies of Commercial Architecture For
Retrofitting 3.3. Retrofitting Comfort And Indoor Environmental Quality
3.4. Reviewing Benchmarking Systems For Retrofitting 3.5. Energy
Performance Rating Systems 3.6. Performance Modelling Tools 3.7. Monitoring
Building Performance 3.8. A Diagnostic Toolkit for Multi-Dimensional
Testing Of Built Internal Environments 3.9. Reducing Embodied Energy
Through Retrofit 3.10. A Checklist For Reducing Peak Energy Loads In
Buildings: A Staged Approach 3.11. Penalty-Reward-Pinch (PRP) Design In
Commercial Building Sustainability 3.12. Economic Drivers For Renovation
3.13. A Bioclimatic Design Approach For Retrofitting Commercial Office
Buildings 3.14. Summary Part 4: Retrofitting Exemplars 4.1. Introduction
4.2. PMM Building; Passive Systems Improvement 4.3. 55 St Andrews Place;
Turning a Sparrow into a Peacock 4.4. Bioclimatic Retrofitting Of
University Buildings 4.5. 503 Collins Street 4.6. Solar Thermal Retrofit
4.7. Benefits And Impacts Of Adjusting Cooling Set-Points In Brisbane 4.8.
Low Energy High-Rise 4.9. Refurbishment for Carbon Reduction and Occupant
Comfort - Insights from the Post Occupancy Evaluation of Three Office
Buildings 4.10. The Deakin University Waterfront Campus - Callista Offices
A Case Study
Design of Our Green Built Environment 1.3. Eco Design for Retrofitting 1.4.
Summary Part 2: Bioclimatic Retrofitting 2.1. Introduction 2.2. Design
Solution Sets For Bioclimatic Retrofit 2.3. An Evidenced-Base Design (Ebd)
Approach For Selecting Retrofitting Strategies 2.4. Performance
Improvements Of Retrofitting Design Solution Sets 2.5. The Economic Case
for Retrofitting Using Bioclimatic Principles (Francis Barram) 2.6. Summary
Part 3: Technological and Behaviour Change for Performance Improvements
3.1 Introduction 3.2. Evaluation Typologies of Commercial Architecture For
Retrofitting 3.3. Retrofitting Comfort And Indoor Environmental Quality
3.4. Reviewing Benchmarking Systems For Retrofitting 3.5. Energy
Performance Rating Systems 3.6. Performance Modelling Tools 3.7. Monitoring
Building Performance 3.8. A Diagnostic Toolkit for Multi-Dimensional
Testing Of Built Internal Environments 3.9. Reducing Embodied Energy
Through Retrofit 3.10. A Checklist For Reducing Peak Energy Loads In
Buildings: A Staged Approach 3.11. Penalty-Reward-Pinch (PRP) Design In
Commercial Building Sustainability 3.12. Economic Drivers For Renovation
3.13. A Bioclimatic Design Approach For Retrofitting Commercial Office
Buildings 3.14. Summary Part 4: Retrofitting Exemplars 4.1. Introduction
4.2. PMM Building; Passive Systems Improvement 4.3. 55 St Andrews Place;
Turning a Sparrow into a Peacock 4.4. Bioclimatic Retrofitting Of
University Buildings 4.5. 503 Collins Street 4.6. Solar Thermal Retrofit
4.7. Benefits And Impacts Of Adjusting Cooling Set-Points In Brisbane 4.8.
Low Energy High-Rise 4.9. Refurbishment for Carbon Reduction and Occupant
Comfort - Insights from the Post Occupancy Evaluation of Three Office
Buildings 4.10. The Deakin University Waterfront Campus - Callista Offices
A Case Study