Technical guidance for professional engineers and architects interested in sustainable design practices and techniques for buildings. Here is what is discussed: 1. THE SUSTAINABLE DESIGN CHALLENGE 2. THE SIX PRINCIPLES OF SUSTAINABLE DESIGN 3. PRINCIPLE: OPTIMIZATION OF SITE POTENTIAL 4. PRINCIPLE: OPTIMIZING ENERGY USE 5. PRINCIPLE: PROTECTION AND CONSERVATION OF WATER 6. PRINCIPLE: SELECTION AND USE OF ENVIRONMENTALLY PREFERABLE PRODUCTS 7. PRINCIPLE: ENHANCEMENT OF INDOOR ENVIRONMENTAL QUALITY 8. OPTIMIZATION OF OPERATIONS AND MAINTENANCE PRACTICES 9. AN AFTERWORD: HOW TO USE THE INFORMATION IN THIS COURSE.
Introductory technical guidance for professional engineers and architects interested in sustainable design of buildings. Here is what is discussed: 1. THE SUSTAINABLE DESIGN CHALLENGE, 2. THE SIX PRINCIPLES OF SUSTAINABLE DESIGN, 3. PRINCIPLE: OPTIMIZATION OF SITE POTENTIAL, 4. PRINCIPLE: OPTIMIZING ENERGY USE, 5. PRINCIPLE: PROTECTION AND CONSERVATION OF WATER, 6. PRINCIPLE: SELECTION AND USE OF ENVIRONMENTALLY PREFERABLE PRODUCTS, 7. PRINCIPLE: ENHANCEMENT OF INDOOR ENVIRONMENTA QUALITY, 8. OPTIMIZATION OF OPERATIONS AND MAINTENANCE PRACTICES, 9. AN AFTERWORD: HOW TO USE THE INFORMATION IN THIS COURSE.
“Sustainable design” is no longer a boutique concept in the design and construction of buildings and related infrastructure. It is widely required by government agencies and is becoming more and more in demand by responsible private owners. This publication will tell you about the framework for applying sustainable design principles. You will learn the goals of each, opportunities you can use to pursue them, and resources that will help you reach them. When you have completed this seminar you will have a road map that will guide you in making sustainability an integral part of your management of building and infrastructure design and construction projects.
Introductory design guidance for professional engineers and architects interested in sustainable design and construction for buildings. Here is what is discussed: 1. OVERVIEW 2. EMPLOY INTEGRATED DESIGN PRINCIPLES 3. OPTIMIZE ENERGY PERFORMANCE 4. PROTECT AND CONSERVE WATER 5. ENHANCE INDOOR ENVIRONMENTAL QUALITY 6. REDUCE ENVIRONMENTAL IMPACT OF MATERIALS 7. ADDRESS CLIMATE CHANGE RIS 8. ASSESSMENT OF EXISTING BUILDINGS FOR HIGH PERFORMANCE AND SUSTAINABLE BUILDING (HPSB) COMPLIANCE.
This publication provides introductory technical guidance for professional engineers, architects, planners and construction managers interested in sustainable design of buildings and infrastructure. Here is what is discussed: 1. DESIGN OF SOLAR WATER HEATING SYSTEMS 2. LOW IMPACT DESIGN 3. NATURAL VENTILATION FOR BUILDINGS 4. PASSIVE SOLAR HEATING OF BUILDINGS 5. PLANNING SOLAR WATER HEATING SYSTEMS 6. SOLAR COLLECTORS 7. SOLAR COOLING SYSTEMS 8. SOLAR ENERGY FUNDAMENTALS 9. SUSTAINABLE DESIGN OF BUILDINGS 10. SUSTAINABLE LIGHTING DESIGN 11. WATER DESALINATION.
A career guide for professionals in sustainable architecture, design, planning, development, and related consulting For those considering a new career or a career change focused on green and sustainable building and design, Becoming a Green Building Professional offers practical information on educational requirements, career options, guidance and tips, and first-hand interviews with green building professionals. Perfect for underemployed architects and other building and design professionals who want to reinvent and renew their careers, as well as students considering such a career, this is a vital and informative guide to a growing field.
Introductory technical guidance for professional engineers and planners interested in principles of sustainable design. Here is what is discussed: 1. DESIGN OF SOLAR WATER HEATING SYSTEMS 2. LOW IMPACT DESIGN 3. NATURAL VENTILATION FOR BUILDINGS 4. PASSIVE SOLAR HEATING OF BUILDINGS 5. PLANNING SOLAR WATER HEATING SYSTEMS 6. SOLAR COLLECTORS 7. SOLAR COOLING SYSTEMS 8. SOLAR ENERGY FUNDAMENTALS 9. SUSTAINABLE DESIGN OF BUILDINGS 10. SUSTAINABLE LIGHTING DESIGN 11. WATER DESALINATION.
Scientific Principles to Guide Sustainable Design Decisions From thermodynamics to fluid dynamics to computational chemistry, this book sets forth the scientific principles underlying the need for sustainable design, explaining not just the "hows" of sustainable design and green engineering, but also the "whys." Moreover, it provides readers with the scientific principles needed to guide their own sustainable design decisions. Throughout the book, the authors draw from their experience in architecture, civil engineering, environmental engineering, planning, and public policy in order to build an understanding of the interdisciplinary nature of sustainable design. Written to enable readers to take a more scientific approach to sustainable design, the book offers many practical features, including: Case studies presenting the authors' firsthand accounts of actual green projects Lessons learned from Duke University's Smart House Program that demonstrate the concepts and techniques discussed in the book Exercises that encourage readers to use their newfound knowledge to solve green design problems Figures, tables, and sidebars illustrating key concepts and summarizing important points For architects, designers, and engineers, this book enables them to not only implement green design methods, but also to choose these methods based on science. With its many examples, case studies, and exercises, the book is also an ideal textbook for students in civil and environmental engineering, construction, and architectural engineering.
