Economic Market Design and Planning for Electric Power Systems

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Edition: 1st
Format: Hardcover
Pub. Date: 2009-12-02
Publisher(s): Wiley-IEEE Press
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Summary

Addressing the economic, social, and security aspects of the operation and planning of restructured electric power systems as envisioned by the NSF-ONR EPNES initiative, Economic Market Design and Planning for Electric Power Systems introduces cutting-edge developments in electric power systems operation and control, risk-based power system planning, and electric market design. The book recognizes the importance of the design of robust power networks to achieve sustainable economic growth on a global scale, making it a suitable resource for engineers, faculty members, and students.

Author Biography

James Momoh was chair of the Electrical Engineering Department at Howard University and director of the Center for Energy Systems and Control. In 1987, Momoh received a National Science Foundation (NSF) Presidential Young Investigator Award. He is a Fellow of the IEEE, a Distinguished Fellow of the Nigerian Society of Engineers (NSE), and a Fellow of the Nigerian Academy of Engineering (NAE). His current research activities for utility firms and government agencies span several areas in systems engineering, optimization, and energy systems' control of terrestrial, space, and naval complex and dynamic networks. He has authored more than 225 technical papers in refereed journals, transactions, or proceedings, as well as several textbooks. Lamine Mili is Professor of Electrical and Computer Engineering at Virginia Tech. An IEEE Senior Member, Dr. Mili is also a member of the Institute of Mathematical Statistics and the American Statistical Association. He is a recipient of a 1990 NSF Research Initiation Award and a 1992 NSF Young Investigator Award. His research interests include risk assessment and management of critical infrastructures, cascading failure modeling, power system planning, power system analysis and control, electric load forecasting, bifurcation theory and chaos, nonlinear optimization, and robust statistics as applied to engineering problems. Dr. Mili is the cofounder and coeditor of the International Journal of Critical Infrastructures.

Table of Contents

Prefacep. xi
Contributorsp. xiii
A Framework for Interdisciplinary Research and Educationp. 1
Introductionp. 1
Power System Challengesp. 3
The Power System Modeling and Computational Challengep. 4
Modeling and Computational Techniquesp. 5
New Curriculum that Incorporates the Disciplines of Systems Theory, Economic and Environmental Science for the Electric Power Networkp. 5
Solution of the EPNES Architecturep. 5
Modular Description of the EPNES Architecturep. 5
Some Expectations of Studies Using EPNES Benchmark Test Bedsp. 7
Implementation Strategies for EPNESp. 8
Performance Measuresp. 8
Definition of Objectivesp. 8
Selected Objective Functions and Pictorial Illustrationsp. 9
Test Beds for EPNESp. 13
Power System Model for the Navyp. 13
Civil Testbed-179-Bus WSCC Benchmark Power Systemp. 15
Examples of Funded Research Work in Response to the EPNES Solicitationp. 16
Funded Research by Topical Areas/Groups under the EPNES Awardp. 16
EPNES Award Distributionp. 17
Future Directions of EPNESp. 18
Conclusionsp. 18
Acknowledgmentsp. 19
Bibliographyp. 19
Modeling Electricity Markets: A Brief Introductionp. 21
Introductionp. 21
The Basic Structure of a Market for Electricityp. 22
Consumer Surplusp. 23
Congestion Rentsp. 24
Market Powerp. 24
Architecture of Electricity Marketsp. 25
Modeling Strategic Behaviorp. 26
Brief Literature Reviewp. 26
Price-Based Modelsp. 27
Quality-Based Modelsp. 30
The Locational Marginal Pricing System of PJMp. 32
Introductionp. 32
Congestion Charges and Financial Transmission Rightsp. 33
Example of a 3-Bus Systemp. 34
LMP Calculation Using Adaptive Dynamic Programmingp. 39
Overview of the Static LMP Problemp. 39
LMP in Stochastic and Dynamic Market with Uncertaintyp. 40
Conclusionsp. 42
Bibliographyp. 42
Alternative Economic Criteria and Proactive Planning for Transmission Investment in Deregulated Power Systemsp. 45
Introductionp. 46
Conflict Optimization Objectives for Network Expansionsp. 49
A Radial-Network Examplep. 49
Sensitivity Analysis in the Radial-Network Examplep. 56
Policy Implicationsp. 57
Proactive Transmission Planningp. 57
Model Assumptionsp. 58
Model Notationp. 60
Model Formulationp. 61
Transmission Investment Models Comparisonp. 62
Illustrative Examplep. 64
Conclusions and Future Workp. 67
Bibliographyp. 68
Appendixp. 68
Payment Cost Minimization with Demand Bids and Partial Capacity Cost Compensations for Day-Ahead Electricity Auctionsp. 71
Introductionp. 72
Literature Reviewp. 73
Problem Formulationp. 73
Solution Methodologyp. 75
Augmented Lagrangianp. 76
Formulating and Solving Unit Subproblemsp. 76
Formulating and Solving Bid Subproblemsp. 79
Solve the Dual Problemp. 80
Generating Feasible Solutionsp. 80
Initialization and Stopping Criteriap. 81
Results and Insightsp. 81
Conclusionp. 84
Acknowledgmentp. 84
Bibliographyp. 84
Dynamic Oligopolistic Competition in an Electric Power Network and Impacts of Infrastructure Disruptionsp. 87
Introduction and Motivationp. 87
Summary and Modeling Approachp. 89
Model Descriptionp. 90
Notationp. 90
Generating Firm's Extremal Problemp. 92
ISO's Problemp. 94
Formulation of NCPp. 95
Complementary Conditions for Generating Firmsp. 95
Complementary Conditions for the ISOp. 97
The Complete NCP Formulationp. 98
Numerical Examplep. 98
Conclusions and Future Workp. 108
Acknowledgmentp. 108
Appendix: Glossary of Relevant Terms form Electricity Economicsp. 108
Bibliographyp. 110
Plant Reliability in Monopolies and Duopolies: A Comparison of Market Outcomes with Socially Optimal Levelsp. 113
Introductionp. 114
Modeling Frameworkp. 116
Profit Maximizing Outcome of a Monopolistic Generatorp. 118
Nash Equilibrium in a Duopolistic Market Structurep. 120
Social Optimump. 122
Comparison of Equilibria and Discussionp. 123
Asymmetric Maintenance Policiesp. 125
Conclusionp. 127
Acknowledgmentp. 128
Bibliographyp. 128
Building an Efficient Reliable and Sustainable Power System: An Interdisciplinary Approachp. 131
Introductionp. 131
Shortcoming in Current Power Systemsp. 132
Our Proposed Solutions to the Above Shortcomingsp. 132
Overview of Conceptsp. 133
Reliabilityp. 133
Bulk Power System Reliability Requirementsp. 134
Public Perceptionp. 135
Power System / New Technologyp. 135
Theoretical Foundations: Theoretical Support for Handling Contingenciesp. 140
Contingency Issuesp. 140
Foundation of Public Perceptionp. 141
Available Transmission Capability (ATC)p. 142
Reliability Measures/Indicesp. 143
Expected Socially Unserved Energy (ESUE) and Load Lossp. 145
System Performance Indexp. 147
Computation of Weighted Probability Index (WPI)p. 148
Design Methodologiesp. 149
Implementation Approachp. 150
Load Flow Analysis with FACTS Devices (TCSC) for WSCC Systemp. 150
Performance Evaluation Studies on IEEE 30-Bus and WSCC Systemsp. 151
Implementation Resultsp. 151
Load Flow Analysis with FACTS Devices (TCSC) for WSCC Systemp. 151
Performance Evaluation Studies on IEEE 30-Bus Systemp. 153
Performance Evaluation Studies on the WSCC Systemp. 155
Conclusionp. 157
Acknowledgmentsp. 158
Bibliographyp. 158
Risk-Based Power System Planning Integrating Social and Economic Direct and Indirect Costsp. 161
Introductionp. 162
The Partitioned Multiobjective Risk Methodp. 164
Partitioned Multiobjective Risk Method Applied to Power System Planningp. 166
Integrating the Social and Economic Impacts in Power System Planningp. 169
Energy Crises and Public Crisesp. 170
Describing the Methodology for Economic and Social Cost Assessmentp. 170
The CRA Methodp. 172
Data Analysis of the California Crises and of the 2003 U.S. Blackoutp. 173
Conclusions and Future Workp. 176
Bibliographyp. 177
Models for Transmission Expansion Planning Based on Reconfigurable Capacitor Switchingp. 181
Introductionp. 181
Planning Processesp. 184
Engineering Analyses and Cost Responsibilitiesp. 185
Cost Recovery for Transmission Ownersp. 187
Economically Motivated Expansionp. 188
Further Readingp. 189
Transmission Limitsp. 189
Decision Support Modelsp. 191
Optimization Formulationp. 192
Planning Transmission Circuitsp. 195
Planning Transmission Controlp. 199
Dynamic Analysisp. 213
Market Efficiency and Transmission Investmentp. 219
Summaryp. 232
Acknowledgmentsp. 232
Bibliographyp. 232
Next Generation Optimization for Electric Power Systemsp. 237
Introductionp. 237
Structure of the Next Generation Optimizationp. 239
Overview of Modulesp. 239
Organizationp. 241
Foundations of the Next Generation Optimizationp. 242
Overviewp. 242
Decision Analysis Toolsp. 243
Selected Methods in Classical Optimizationp. 248
Optimal Controlp. 250
Dynamic Programming (DP)p. 252
Adaptive Dynamic Programming (ADP)p. 253
Variants of Adaptive Dynamic Programmingp. 255
Comparison of ADP Variantsp. 258
Application of Next Generation Optimization to Power Systemsp. 260
Overviewp. 260
Framework for Implementation of DSOPFp. 261
Applications of DSOPF to Power Systems Problemsp. 262
Grant Challenges in Next Generation Optimization and Research Needsp. 272
Concluding Remarks and Benchmark Problemsp. 273
Acknowledgmentsp. 273
Bibliographyp. 274
Indexp. 277
Table of Contents provided by Ingram. All Rights Reserved.

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