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Net Zero Energy Buildings (NZEB) : Concepts, Frameworks, and Roadmap for Project Analysis and Implementation.
- Format:
- Book
- Author/Creator:
- Attia, Shady.
- Language:
- English
- Physical Description:
- 1 online resource (546 pages)
- Edition:
- 2nd ed.
- Place of Publication:
- Chantilly : Elsevier Science & Technology, 2025.
- Summary:
- Net Zero Energy Buildings (NZEB): Concepts, Frameworks, and Roadmap for Project Analysis and Implementation, Second Edition is a vital resource for researchers and professionals in civil engineering and architecture.
- Contents:
- Front Cover
- Net Zero Energy Buildings (Nzeb)
- Copyright Page
- Dedication
- Contents
- About the author
- Preface to the first edition
- Preface to the second edition
- Acknowledgments
- 1 Introduction to Net Zero Energy Building and Market Accelerators
- Abbreviations
- 1 Introduction
- 2 Climate Change, Greenhouse Gas Emissions, and Healthy Buildings
- 2.1 Greenhouse Gas Emissions Reduction
- 2.2 The Role of Healthy Buildings
- 2.3 Net Zero Energy Buildings as a Solution
- 3 Smartness and Grid Modernization
- 3.1 Digitalization and Automation
- 3.2 Smartness and Grid Modernization
- 4 Market Size and Property Value Matters
- 4.1 Market Demand for Net Zero Energy Buildings
- 4.2 Cost Cutting and Property Value
- 5 Book Chapters
- 5.1 Chapter 2: Evolution of Definitions and Approaches
- 5.2 Chapter 3: Net Zero Energy Building Performance Indicators and Thresholds
- 5.3 Chapter 4: Integrative Project Delivery and Team Roles
- 5.4 Chapter 5: Occupants Well-Being and Indoor Environmental Quality
- 5.5 Chapter 6: Materials and Environmental Impact Assessment
- 5.6 Chapter 7: Energy Systems and Loads Operation
- 5.7 Chapter 8: Smart-Decarbonized Energy Grids and Net Zero Energy Building Upscaling
- 5.8 Chapter 9: Construction Quality and Cost
- 5.9 Chapter 10: Occupant Behavior and Performance Assurance
- 5.10 Chapter 11: Net Zero Energy Building Case Studies and Learned Lessons
- 5.11 Chapter 12: Roadmap for Net Zero Energy Building Implementation
- 6 Lessons Learned #1
- References
- 2 Evolution of Definitions and Approaches
- 2 Definitions of Net Zero Energy Buildings
- 2.1 History of Net Zero Energy Buildings
- 2.2 Terminology and Definitions
- Nearly Zero Energy Buildings
- Net Zero Site Energy
- Net Zero Source Energy (Primary Energy)
- Net Zero Energy Cost.
- Net Zero Carbon Buildings
- Net Zero Whole Life Carbon Building
- Net Zero Energy Cost Optimal Buildings
- 3 Principles of Net Zero Energy Building Design
- 3.1 Trias Energetica
- 3.2 Net Zero Energy Buildings Design Principles
- 4 Concepts, Typologies, and Standards for Net Zero Energy Buildings
- 4.1 Net Zero Energy Buildings Concepts and Standards
- Passive House
- Active House
- Energy Performance of Buildings Directive
- Energy Performance Certificates
- 2000 Watt Society
- Factor 4 Buildings
- Zero Energy Ready Home
- Green Certification Programs
- 4.2 Net Zero Energy Buildings Types and Energy Use Intensity
- 5 Approaches for Net Zero Energy Buildings
- 5.1 Overview of Net Zero Energy Buildings Regulations and Policies
- Gradual Progress
- Ambitious Leaps
- 5.2 High-Tech Versus Low-Tech
- 5.3 Sufficiency in Net Zero Energy Buildings
- 6 Discussion
- 7 Lessons Learned #2
- 3 Net Zero Energy Building Performance Indicators and Thresholds
- ABBREVIATIONS
- 1 INTRODUCTION
- 2 CHALLENGES OF NET ZERO ENERGY BUILDING IMPLEMENTATION
- 3 PERFORMATIVE DESIGN FOR NET ZERO ENERGY BUILDINGS
- 3.1 Performance-based and Prescriptive Design
- 3.2 Designing for Robust Net Zero Energy Buildings
- 4 NET ZERO ENERGY BUILDING PERFORMANCE INDICATORS AND THRESHOLDS
- 4.1 Operational Greenhouse Gas Emissions Threshold
- 4.2 Minimum Energy Efficiency Threshold
- 4.3 Heating-Cooling Balance
- 4.4 Indoor Environmental Quality Limits
- 4.5 Renewable Energy Generation Threshold
- 4.6 Occupancy Density
- 4.7 Energy Storage Integration
- 4.8 Cost Threshold
- 5 NET ZERO ENERGY BUILDING STATUS WORLDWIDE
- 5.1 Denmark
- 5.2 France
- 5.3 The Netherlands
- 5.4 Sweden
- 5.5 United States
- 6 RECOMMENDATIONS FOR NET ZERO ENERGY BUILDING PERFORMANCE THRESHOLDS
- 6.1 Technical Development.
- 6.2 Organizational-Harmonizing and Sharing
- 6.3 Organizational-Infrastructure
- 6.4 Legislation and Enforcement
- 6.5 Educational-Awareness
- 7 DISCUSSION
- 8 LESSON LEARNED # 3
- 4 Integrative Project Delivery and Team Roles
- 2 Integrative Process Design
- 2.1 Complexity of Net Zero Energy Buildings Design Process
- 2.2 Conventional Versus Integrative Process Project Delivery
- 3 Integrated Team and Collaboration
- 3.1 Collaborative Multidisciplinary Team
- 3.2 Team Experience and Building Performance Coordinator
- 4 Building Performance-Based Contracts
- 4.1 Project Contracting Methods and Liability
- 4.2 Project Acquisition and Team Assembly
- 5 Building Information and Performance Modeling
- 5.1 Barriers to Integrating Building Modeling During Early Design Phases
- 5.2 Energy Modeling Tools
- 5.3 Building Information Modeling
- 7 Lesson Learned # 4
- 5 Occupants' Well-Being and Indoor Environmental Quality
- 2 Challenges to Achieve Indoor Environmental Quality
- 2.1 Risks Associated With Outdoor Environment
- Poor Air Quality
- High Noise Levels
- Climate Change and Extreme Weather Events
- Heat Island Effect
- 2.2 Risks Associated With Building Design and Occupants Use
- Climate Characterization
- Design Optimization and Overheating Risk
- Occupant Density and Use
- Construction and Operation
- 3 Occupants' Well-Being in Net Zero Energy Buildings
- 3.1 Productivity and Satisfaction
- Productivity
- Satisfaction
- 3.2 Physical Environment Factors
- Indoor Air Quality
- Thermal Comfort
- Daylighting and Views
- Acoustic Comfort
- Interior Layout
- Personal Control
- 4 Target Values for Indoor Environmental Quality in Net Zero Energy BuildingS
- 4.1 Thermal Comfort.
- Design Indoor Temperature
- Air Velocity and Drought
- Vertical and Horizontal Temperature Distribution
- 4.2 Air Quality and Ventilation
- Indoor Air Quality Ventilation Rates (Office and Residential)
- Carbon Dioxide Concentration
- Filtration and Air Cleaning
- 4.3 Moisture and Air Humidity
- 4.4 Daylight and Visual Comfort
- Interior Lighting
- 4.5 Acoustic Comfort
- Sound Transmission
- Sound Reverberation
- Indoor Background Noise
- 5 Quality Assurance
- 7 Lesson Learned # 5
- 6 Materials and Environmental Impact Assessment
- 2 Building Materials' Environmental Impact
- 2.1 Environmental Impact
- 2.2 Health Impact
- 2.3 Materials Life Cycle and Circularity
- 3 Materials' Environmental Impact Assessment Approaches
- 3.1 Definitions and Concepts
- 3.2 Life Cycle Impact Assessment for Net Zero Energy Buildings
- Key Performance Indicator
- Functional Unit
- Life Cycle Impact Assessment Study Duration
- Calculation Method
- Biogenic Carbon
- Life Cycle Impact Assessment Databases
- Life Cycle Impact Assessment Software and Uncertainty Analysis
- 4 Policies and Best Practices
- 4.1 Carbon Limit Values for Net Zero Energy Buildings
- 4.2 Best Practices
- 5 Construction Systems and Materials
- 5.1 Building Construction Systems and Materials
- 5.2 Ecological Building Construction and Materials
- 7 Lesson Learned # 6
- 7 Energy Systems and Loads Operation
- 2 Integration of Energy Systems and Smart Metering Technologies
- 3 HVAC Systems and Renewable Energy Systems
- 3.1 Mechanical Ventilation
- Heat Recovery Ventilation
- Dedicated Outdoor Air System
- 3.2 Heating Systems
- Electric Resistance Heating
- Air Source, Ground Source, and Water Heat Pumps
- Wood-Burning Boilers.
- Natural Gas and Petroleum Fuels
- District Heating and Cooling
- 3.3 Cooling and Air Conditioning
- Indoor Fans
- 3.4 Renewable Energy Systems
- 4 Building Energy Storage Systems
- 4.1 Thermal Building Mass
- Thermally Activated Building Systems
- Phase Change Materials
- 4.2 Water-Based Storage Systems
- 4.3 Batteries
- 5 Controls and Loads Operation
- 5.1 Plug Loads
- 5.2 Electric Lighting
- 5.3 Controls and Loads Operation
- 5.4 Controls
- 5.5 Part-Load Operation
- 7 Lesson Learned # 7
- 8 Smart-Decarbonized Energy Grids and Net Zero Energy Building Upscaling
- 2 Problems and Challenges
- 3 Smart Buildings
- 3.1 Control-Demand Flexibility
- 3.2 Smart Metering and Internet of Things Integration
- 3.3 Energy Storage and Electric Vehicles
- 3.4 Transitioning Net Zero Energy Buildings Into Decarbonized Grids
- 3.5 Future Directions for Smart Net Zero Energy Buildings
- 4 Smart Grids
- 4.1 Concepts and Challenges
- 4.2 Smart Grid Standards and Best Practices
- 4.3 Micro Grids
- 5 Decarbonized Power Grids
- 5.1 Electric Grid and Renewables
- 5.2 Hydrogen as a Future Energy Carrier
- 5.3 Phasing Out Fossil Fuels
- 7 Lesson Learned # 8
- 9 Construction Quality and Cost
- 2 ACTUAL CHALLENGES
- 2.1 Construction Quality
- 2.2 Modularity and Cost Reduction
- 3 CONSTRUCTION BEST PRACTICES
- 3.1 Construction Systems
- 3.2 Construction Details
- 3.3 Construction Technology
- 4 CAPACITY BUILDING, EDUCATION, AND TRAINING
- 4.1 Accredited Professionals
- 4.2 Vocational Education and Training
- 4.3 Knowledge-Based and Institutional Infrastructure
- 5 CERTIFICATION AND QUALITY ASSURANCE
- 5.1 Quality Strategy and Quality Team
- 5.2 Building and Components Certification.
- 5.3 Project Management.
- Notes:
- Description based on publisher supplied metadata and other sources.
- ISBN:
- 0-443-34183-4
- 0-443-34182-6
- OCLC:
- 1535401377
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