Energy-Efficient Electrical Systems for Buildings

Cover
Half Title
Series Page
Title Page
Copyright Page
Table of Contents
Preface
Author Biographies
Chapter 1 Introduction
	1.1 Introduction
	1.2 Overview of Building Electrical Distribution Systems
	1.3 Electrification of Buildings
	1.4 DC Distribution Systems
	1.5 General Design Approach
	1.6 Summary
Chapter 2 Overview of Electrical Circuits
	2.1 Introduction
	2.2 Review of DC and AC Circuits
	2.3 Multiphase AC Systems
	2.4 Power Factor Correction
	2.5 Summary
	2.6 Problems
Chapter 3 Electrical Transformers
	3.1 Introduction
	3.2 Fundamentals of Transformers
	3.3 Types of Transformers
	3.4 Transformer Connections
	3.5 Testing Methods for Transformers
	3.6 Design Specifications for Transformers
	3.7 Summary
	3.8 Problems
Chapter 4 Electrical Motors
	4.1 Introduction
	4.2 Operation of Three-Phase Motors
	4.3 Operation of One-Phase Motors
	4.4 Performance Characteristics of Motors
	4.5 Motor Energy Efficiency Improvements
	4.6 Summary
	4.7 Problems
Chapter 5 Protection Systems
	5.1 Introduction
	5.2 Impact of Electricity on Humans
	5.3 Basic Operation of Protection Devices
	5.4 Types of Protection Devices
	5.5 Grounding and Bonding
	5.6 Summary
	5.7 Problems
Chapter 6 Branch Circuits and Feeders
	6.1 Introduction
	6.2 Size and Rating of Conductors
	6.3 Design of Conductors
	6.4 Selection of Conduits
	6.5 Branch Circuits and Feeders for Nonmotor Loads
	6.6 Branch Circuits and Feeders for Motors
	6.7 Summary
	6.8 Problems
Chapter 7 Electrical Systems for Dwellings
	7.1 Introduction
	7.2 General Design Approach
	7.3 Main Service Entrance Design
	7.4 Branch Circuits for Residential Buildings
	7.5 General Design Procedure
	7.6 Electrical Systems for Apartment Buildings
	7.7 Case Study: Analysis of Electrical Systems for a Ranch House
	7.8 Summary
	7.9 Problems
Chapter 8 Electrical Systems for Commercial Buildings
	8.1 Introduction
	8.2 Short-Circuit Currents
	8.3 Lighting and Power Panels
	8.4 Motor Control Centers Design
	8.5 Switchboards and Unit Substations
	8.6 Emergency Systems
	8.7 Fire Alarms
	8.8 Case Study
	8.9 Summary
	8.10 Problems
Chapter 9 Economic Analysis of Energy Projects
	9.1 Introduction
	9.2 Basic Concepts
	9.3 Compounding Factors
	9.4 Economic Evaluation Methods
	9.5 Life Cycle Cost Analysis Method
	9.6 General Procedure for an Economic Evaluation
	9.7 Electricity Rates
	9.8 Summary
	9.9 Problems
Chapter 10 Energy-Efficient Electrical Systems
	10.1 Introduction
	10.2 Electrical Motors
	10.3 Lighting Systems
	10.4 Other Electrical Systems
	10.5 Energy-Efficient Electrical Equipment
	10.6 Electrical Distribution Systems
	10.7 Summary
	10.8 Problems
Chapter 11 Power Quality in Buildings
	11.1 Introduction
	11.2 Electrical Disturbances
	11.3 Mitigation Options
	11.4 Harmonic Distortions
	11.5 Impact Harmonic Distortions
	11.6 Measurements of Harmonic Distortions
	11.7 Summary
	11.8 Problems
Chapter 12 Design of Photovoltaic Systems
	12.1 Introduction
	12.2 Photovoltaic System Components
	12.3 PV System Configurations
	12.4 Design of PV Power Systems
	12.5 PV Modules and the Balance of a System
	12.6 Case Studies
	12.7 Programs for Building Integration of PV Systems
	12.8 Summary
	12.9 Problems
Chapter 13 Power Generation and Cogeneration Systems
	13.1 Introduction
	13.2 Benefits of Cogeneration
	13.3 History of Cogeneration
	13.4 Types of Fuel-Based Generation Systems
	13.5 Evaluation of Cogeneration Systems
	13.6 Case Study 1: Evaluation of an Existing Cogeneration Systems
	13.7 Case Study 2: Design of Optimal Hybrid Systems
	13.8 Summary
	13.9 Problems
Chapter 14 Optimal Designs of Energy Efficient and Resilient Power Systems
	14.1 Introduction
	14.2 Grid Interactive Efficient Buildings
	14.3 Net Zero Energy Buildings
	14.4 Optimization Approaches
	14.5 Near-Optimal Analysis Methodology
	14.6 Case Study 1: Optimal Retrofit and Design of Homes
	14.7 Case Study 2: Design of Electrified and Resilient Residential Buildings and Communities
	14.8 Summary
Appendix
References
Index