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El. knyga: Smart Grid: Enabling Energy Efficiency and Demand Response

(Electronic Power Research Institute, Palo Alto, California, USA)
  • Formatas: 250 pages
  • Išleidimo metai: 17-Dec-2020
  • Leidėjas: CRC Press Inc
  • Kalba: eng
  • ISBN-13: 9788770222839
Kitos knygos pagal šią temą:
  • Formatas: 250 pages
  • Išleidimo metai: 17-Dec-2020
  • Leidėjas: CRC Press Inc
  • Kalba: eng
  • ISBN-13: 9788770222839
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The power system has often been cited as the greatest and most complex machine ever built, yet it is predominantly a mechanical system. Technologies and intelligent systems are now available that can significantly enhance the overall functionality of power distribution and make it ready to meet the needs of the 21st century. This book explains how sensors, communications technologies, computational ability, control, and feedback mechanisms can be effectively combined to create this new, continually adjusting "smart grid" system. It provides an understanding of both IntelliGridSM architecture and EnergyPortSM as well as how to integrate intelligent systems to achieve the goals of reliability, cost containment, energy efficiency in power production and delivery, and end-use energy efficiency.
What is the Smart Grid?
1(26)
What is a Smart Grid?
1(1)
The Smart Grid Enables the ElectriNetSM
2(2)
Local Energy Networks
4(1)
Electric Transportation
5(1)
Low-Carbon Central Generation
6(1)
What Should be the Attributes of the Smart Grid?
6(1)
Why do we Need a Smart Grid?
7(5)
Is the Smart Grid a ``Green Grid''?
12(2)
Alternative Views of a Smart Grid
14(13)
Capgemini's Vision (www.capgemini.com/energy)
14(2)
IBM's Vision (www.ibm.com/iibv)
16(1)
IntelliGridSM (www.epri-intelligrid.com)
17(2)
The Modern Grid Strategy (www.netw.doe.gov)
19(1)
GridWiseTM (www.electricdistribution.ctc.com)
19(1)
General Electric Vision (www.gepower.com)
19(2)
Distribution Vision 2010 (DV2010)
21(1)
UK SuperGen Initiative (www.supergen-networks.org.uk)
21(1)
Hydro Quebec Automation Initiative
22(1)
The Galvin Initiative (www.galvinpower.org)
22(1)
Electricite de France (EDF) Power-Strada
23(1)
European Union Smart Grid (www.smartgrids.eu)
23(4)
Electric Energy Efficiency in Power Production & Delivery
27(26)
Introduction
27(1)
Power Plant Elecricity Use
28(1)
Lighting
29(3)
Maintenance Issues
31(1)
Space Conditioning and Domestic Water Heating
32(5)
Building Infiltration
35(2)
Motors
37(3)
EPRI Demonstrations
40(3)
Efficiency in Power Delivery
43(1)
Conservation Voltage Reduction
43(3)
Distribution Transformer Efficiency
46(7)
Electric End-Use Energy Efficiency
53(24)
Defining Electric End-use Energy Efficiency
53(1)
Energy Efficiency
53(1)
Is Energy Efficiency Cost-Effective?
54(1)
Financial Impacts of Energy Efficiency
55(1)
How Desirable is Energy Efficiency?
55(1)
A Renewed Mandate
56(2)
Drivers of Energy Efficiency
58(2)
Renewed Interest
60(5)
Reducing Greenhouse Gas Emissions
61(4)
What Can Be Accomplished?
65(1)
IEA Estimates
65(2)
United Nations Foundation Estimates
67(4)
Energy Efficiency Potential in the U.S.
71(6)
Using a Smart Grid to Evolve the Perfect Power System
77(16)
The Galvin Vision-A Perfect Power System
78(3)
Defining the Perfect Electric Energy Service System
79(1)
Design Criteria
80(1)
Path to the Perfect Power System
80(1)
Overview of the Perfect Power System Configurations
81(1)
Device---Level Power System
81(3)
Advantages of the Perfect Device-level Power System & Relevant Nodes of Innovation
82(2)
Building Integrated Power Systems
84(3)
Advantages of the Building Integrated Power System & Relevant Nodes of Innovation
84(3)
Distributed Power Systems
87(1)
Advantages of the Distributed Power System & Relevant Nodes of Innovation
87(1)
Fully Integrated Power System: The Smart Grid
88(1)
Nodes of Innovation
88(5)
DC Distribution & The Smart Grid
93(20)
AC vs. DC Power: An Historical Perspective
93(5)
Transformers transform the power delivery system
95(1)
Centralization dictates AC instead of DC
96(2)
Benefits and Drives of DC Power Delivery Systems
98(3)
Powering Equipment and Appliances with DC
101(4)
Equipment Compatibility
101(4)
Data Centers and Information Technology (IT) Loads
105(4)
Your Future Neighborhood
109(1)
Potential Future Work and Research
109(4)
The Intelligridsm Architecture for the Smart Grid
113(18)
Introduction
113(1)
Launching the IntelliGridSM
114(2)
The IntelliGridSM Today
116(2)
Visualizing the Power System in Real Time
116(1)
Increasing System Capacity
116(1)
Relieving Bottlenecks
116(1)
Enabling a Self-Healing Grid
117(1)
Enabling (Enhanced) Connectivity to Consumers
117(1)
A Smart Grid Vision Based on the IntelliGridSM Architecture
118(1)
Barriers to Achieving this Vision
119(6)
Communication Architecture: The Foundation of the IntelliGridSM
119(3)
Fast Simulation and Modeling
122(2)
Open Communication Architecture for Distributed Energy Resources in Advanced Automation
124(1)
Enabling Technologies
125(6)
Automation: The Heart of the IntelliGridSM
126(1)
Distributed Energy Resources and Storage Development & Integration
126(1)
Power Electronics-Based Controllers
127(1)
Power Market Tools
127(1)
Technology Innovation in Electricity Use
128(1)
The Consumer Portal
128(3)
The Smart Grid -Enabling Demand Response-The Dynamic Energy Systems Concept
131(24)
Smart Energy Efficient End-Use Devices
132(1)
Smart Distributed Energy Resources
132(1)
Advanced Whole-Building Control Systems
133(1)
Integrated Communications Architecture
133(1)
Energy Management Today
134(8)
Demand-side Management
138(3)
Demand Response
141(1)
Role of Technology in Demand Response
142(1)
Current Limitations and Scope for Dynamic Energy Management
143(1)
Distributed Energy Resources
144(2)
How is Dynamic Energy Management Different?
146(2)
Overview of a Dynamic Energy Management System Operation from an Integrated Perspective
148(2)
Key Characteristics of Smart Energy-Efficient End-use Devices and Distributed Energy Resources (Together Referred to as ``Smart Devices'')
150(1)
Key Characteristics of Advanced Whole-building Control Systems
151(1)
Key Features of a Dynamic Energy Management System
151(4)
The EnergyportSM as Part of the Smart Grid
155(16)
What is the EnergyPortSM?
162(1)
What Are the Generic Features of the EnergyPortSM?
162(9)
Simplify Building Systems
163(1)
Safety
163(1)
Reliability
164(1)
Decentralized Operation
164(1)
Consumer Interface
165(1)
Appliances that Talk to Each Other
166(1)
Safety
166(1)
Communication
167(2)
Entertainment
169(1)
Network Communications Management
169(1)
Remote Consumer-Site Vicinity Monitoring
169(1)
Markets
169(2)
Policies & Programs to Encourage End-Use Energy Efficiency
171(18)
Policies and Programs in Action
174(11)
Multi-National Level
174(1)
National Level
175(7)
State Level
182(1)
City Level
183(1)
Corporate Level
184(1)
Energy Efficiency Challenges in the Middle East and North Africa
185(4)
Market Implementation
189(32)
The Market Planning Framework
194(1)
Factors Influencing Customer Acceptance and Response
195(15)
Customer Satisfaction
198(1)
Direct Customer Contact
199(2)
Trade Ally Cooperation
201(1)
Advertising and Promotion
202(3)
Alternative Pricing
205(1)
Direct Incentives
206(4)
Program Planning
210(3)
Program Management
210(1)
Program Logistics
211(1)
The Implementation Process
212(1)
Monitoring and Evaluation
213(8)
Monitoring Program Validity
215(1)
Data and Information Requirements
216(1)
Management Concerns
217(4)
Efficient Electric End-use Technology Alternatives
221(24)
Existing Technologies
221(9)
Lighting
222(2)
Space Conditioning
224(1)
Indoor Air Quality
224(2)
Domestic Water Heating
226(1)
Hyper-Efficient Appliances
226(1)
Ductless Residential Heat Pumps and Air Conditioners
227(1)
Variable Refrigerant Flow Air Conditionings
227(1)
Heat Pump Water Heating
228(1)
Hyper-Efficient Residential Appliances
229(1)
Data Center Energy Efficiency
229(1)
Light-Emitting Diode (LED) Street and Area Lighting
230(1)
Industrial
230(8)
Motors and Drives
230(1)
Motors
231(1)
Drive Train
231(2)
Electrical Supply
233(1)
Equipment Retrofit and Replacement
233(1)
Process Heating
234(1)
Cogeneration
235(1)
Thermal Energy Storage
236(1)
Industrial Energy Management Programs
237(1)
Manufacturing Processes
237(1)
Electrotechnologies
238(4)
Residential Sector
238(1)
Commercial Sector
239(1)
Industrial Sector
239(1)
Induction Process Heating
240(1)
Dielectric Process Heat
240(1)
Infrared Process Heat
240(1)
Electric Arc Furnaces
240(1)
Efficiency Advantages of Electric Process Heat Systems
241(1)
Merits of Elecrotechnologies Beyond Energy Efficiency
242(3)
Demand-Side Planning
245(14)
Introduction
245(5)
What is Demand-side Planning?
247(1)
Why Consider the Demand Side?
248(1)
Selecting Alternatives
249(1)
Issues Critical to the Demand-side
250(8)
How can Demand-side Activities Help Achieve Its Objective?
250(1)
The Utility Planning Process
250(4)
Demand Response & Energy Efficiency
254(1)
What Type of Demand-side Activities should Providers Pursue?
254(4)
How Do I Select those Alternatives that are most Beneficial?
258(1)
Demand-Side Evaluation
259(30)
Levels of Analysis
259(2)
General Information Requirements
261(1)
System Context
262(1)
Transferability
262(1)
Data Requirements
263(1)
Cost/Benefit Analysis
263(1)
Non-monetary Benefits & Costs
264(3)
What Changes in the Load Shape Can be Expected by Implementing Demand-side Alternatives?
265(2)
Program Interaction
267(1)
Dynamic Systems
267(3)
How can Adoption of Demand-side Alternatives be Forecasted and Promoted?
268(2)
Estimating Future Market Demand & Customer Participation Rates
270(2)
Consumer & Market Research
272(1)
Customer Adoption Techniques
273(2)
What is the Best Way to Implement Selected Demand-side Programs?
275(1)
Program Implementation Issues
275(4)
Program Planning
275(1)
Program Management
276(1)
Program Logistics
276(3)
The Implementation Process
279(2)
How Should Monitoring and Evaluation of the Performance of Demand-side Program and Activities be Best Achieved?
280(1)
Monitoring and Evalution Approaches
281(1)
Issues in Program Monitoring and Evaluation
282(2)
Monitoring Program Validity
282(1)
Data and Information Requirements
283(1)
Management Concerns
284(1)
Monitoring and Evaluation Programs
284(5)
How Do I Get Started in Addressing Demand-side Planning Issues as they Relate to My Utility?
286(3)
Appendix---Additional Resources 289(8)
Index 297
Clark W. Gellings is Vice President of Technology at the Electric Power Research Institute in Palo Alto, California, USA.