Encyclopedia of Electrical and Electronic Power Engineering, Three Volume Set provides a detailed reference on power engineering, presenting comprehensive information from a beginner’s perspective. Users will save a dramatic amount of time and effort when searching for foundational information on any specific topic within power engineering. Each topic is covered at a consistent level of detail using a consistent and clearly laid-out structure and approach. This dedicated, rigorous encyclopedia is designed to present summarized information with technical foundations, but also with practical applicability of the collected information.
This book will be a key tool for a variety of individuals, including design power engineers, technical staff, researchers in the field, and faculty, students and trainees in academic institutions.
1. Introduction to mathematics for electrical and electronics engineering - p. iii 2. Basic electric and electromagnetic magnitudes and units - p. iii 3. Basics of complex numbers in electrical and electronics engineering - p. iii 4. Trigonometric and exponential forms of complex numbers - p. iii 5. Logarithms for electric and electronic engineering - p. iii 6. Scalar, phasors and vector magnitudes for electric and electronic engineering - p. iii 7. Electrical network equations - p. iii 8. Theorems for circuit analysis - p. iii 9. Matrix operations in electrical engineering: sparse matrix - p. iii 10. Representations of voltage and current systems - p. iii 11. Single variables functions in electrical engineering - p. iii 12. Differential equations basics - p. iii 13. Linear and non-linear equations and equation systems - p. iii 14. Partial derivatives and jacobian matrix - p. iii 15. Periodical waveforms in electrical and electronic engineering - p. iii 16. Fourier transform and Fourier series - p. iii 17. Spectral analysis and spectral density - p. iii 18. Circuit analysis in the frequency domain - p. iii 19. Laplace transform: basics and main properties - p. iii 20. Introduction to digital sampled systems and nyquist sampling theorem - p. iii 21. Synchronous sampling and practical frequency selection - p. iii 22. Z-transform: basics and main properties - p. iii 23. Digital filters - p. iii 24. Binary codes - p. iii 25. Digital functions - p. iii 26. Fundamentals of Boolean algebra - p. iii 27. Programmable solutions - p. iii 28. Mathematical programming for power systems - p. iii 29. Introduction to probability theory - p. iii 30. Uncertainty modeling in electrical power engineering: stochastic programming - p. iii 31. Uncertainty modeling in electrical power engineering: robust optimization - p. iii 32. Optimal power flow under uncertainty - p. iii 33. Power system security, reliability, restoration and resiliency - p. iii 34. A review on economic dispatch problems from problem formulations point of view and required data - p. iii 35. Operating economics and pricing in power systems - p. iii 36. Integration of renewable energy sources, energy storages, and their impacts - p. iii 37. Numerical algorithms for protection and metering devices - p. iii 38. Abstract - p. iii 39. Introduction - p. iii 40. Phasor estimation techniques - p. iii 41. Frequency estimation - p. iii 42. Synchronized phasors - p. iii 43. Model based algorithms - p. iii 44. Traveling wave based protection algorithms - p. iii 45. Distribution protection using smart meters - p. iii 46. Numerical algorithms for IEC 61850 based devices - p. iii 47. References - p. iii 48. Enabling technologies for resilient time synchronization of wide area power system monitoring - p. iii 49. Power system grounding and its effect on surrounding components - p. iii 50. Power definitions for electrical circuits with nonsinusoidal and unbalanced voltages and currents - p. iii 51. System integrity protection schemes - p. iii 52. Condition monitoring of rotating electrical machines - p. iii 53. Application of model predictive control in wind farm - p. iii 54. Integrated energy system - p. iii 55. Climate change mitigation in power systems - p. iii 56. Power system loads modeling - p. iii 57. Voltage stability in future power systems - p. iii 58. Control interactions resulting from converter interfaced generation - p. iii 59. Data-driven approaches for power system operation and planning under high renewable energy penetration - p. iii 60. Modern power system state estimation methods - p. iii 61. Wide Area Monitoring, Protection and Control (WAMPAC) - p. iii 62. Hardware in the loop testing for power systems - p. iii 63. Measuring technologies for future power grids - p. iii 64. Technologies for data collection in power systems - p. iii 65. Advance Metering Infrastructure in Smart Grids - p. iii 66. Communication systems for smart power systems - p. iii 67. Energy storage in distribution power systems - p. iii 68. Existing regulatory frameworks in smart power distribution - p. iii 69. Business and market models in power distribution systems - p. iii 70. Transactive energy in power systems: concepts, techniques and applications - p. iii 71. Peer to peer electricity markets - p. iii 72. Self-consumption in smart distribution systems - p. iii 73. Ancillary services provision in terminal distribution systems - p. iii 74. The role of DSOs, retailers, utilities, and aggregators in the new distribution network paradigm - p. iii 75. An overview on smart buildings - p. iii 76. Smart meters - p. iii 77. Power electronics for smart grids - p. iii 78. Smart inverters and smart converters - p. iii 79. Local energy markets - p. iii 80. The use of block chain technologies in smart power systems - p. iii 81. Internet of Things (IoT) for power system applications - p. iii 82. Big Data applications in power systems - p. iii 83. Artificial Intelligence applications for power systems (including Machine Learning) - p. iii 84. Simulation tools for power systems applications - p. iii 85. Distribution system modelling - p. iii 86. Power flow algorithms for three-phase unbalanced distribution systems - p. iii 87. State estimation in distribution systems - p. iii 88. Planning smart power systems - p. iii 89. Introduction to power electronics - p. iii 90. AC-DC converters (rectifiers) - p. iii 91. DC-DC converters (choppers and SMPS) - p. iii 92. DC-AC converters (inverters) - p. iii 93. AC-AC controllers (AC voltage controllers and cycloconverters) - p. iii 94. Real circuit components and system design considerations - p. iii 95. Inductor design for power electronics applications - p. iii 96. Electromagnetic compatibility for power electronics - p. iii 97. Resonant converters - p. iii 98. Specific topologies and circuits: challenges in low power - p. iii 99. System design: domestic—wireless charging, induction heating - p. iii 100. System design: lighting - p. iii 101. Power converters for renewable energy: solar - p. iii 102. Power converters for renewable energy: wind - p. iii 103. Solid-State transformers - p. iii 104. Diagnosing power electronics converters faults - p. iii 105. Power system resilience (end user) and critical infrastructure - p. iii 106. Linear and nonlinear systems in continuous time: application to power converters - p. iii 107. Properties and control stability analysis of linear and nonlinear systems: applications to power converters - p. iii 108. PID controller design - p. iii 109. Practical linear controllers for power electronics and drives - p. iii 110. PID controller with computational optimization - p. iii 111. Sliding mode control: from basic principles to modern techniques - p. iii 112. Load frequency control design in state space - p. iii 113. Design of state estimators for controls of power systems - p. iii 114. Principle of model-based control - p. iii 115. Causal ordering graph and model-based control - p. iii 116. Energetic macroscopic representation and inversion-based control - p. iii 117. Bond-Graph approach and model-based control - p. iii 118. PWM control of inverters - p. iii 119. Fundamental design of electric motor control systems - p. iii 120. Advanced control algorithms for electric machine drives - p. iii 121. Control of fuel cell systems - p. iii 122. Modeling, control, and simulation of a variable speed wind energy conversion system connected to the power grid - p. iii 123. Control of photovoltaic systems - p. iii 124. Energy management strategies for HEVs: introduction and positioning - p. iii 125. Rule-based energy management of hybrid electric vehicles focus on load following strategy - p. iii 126. Management of the energy storage hybridization in electric vehicles - p. iii 127. Dynamic programming method for electrified vehicles - p. iii 128. FPGA-based control for power electronics applications - p. iii 129. Introduction to Hardware-In-the-Loop (HIL) simulations of electrical power systems - p. iii 130. Controller hardware-in-the-loop simulation: step by step guide - p. iii 131. Power hardware-in-the-loop methodology and implementation: energy conversion system applications - p. iii 132. Control systems with compact-RIO implementation - p. iii 133. Supervisory control of discrete event systems under total and partial observation - p. iii 134. Decentralized architectures for supervisory control of discrete event systems - p. iii 135. Supervisory control of real-time discrete event systems - p. iii 136. Index - p. iii 137. Author Index - p. iii
Encyclopedia of Electrical and Electronic Power Engineering, Three Volume Set provides a detailed reference on power engineering, presenting comprehensive information from a beginner’s perspective. Users will save a dramatic amount of time and effort when searching for foundational information on any specific topic within power engineering. Each topic is covered at a consistent level of detail using a consistent and clearly laid-out structure and approach. This dedicated, rigorous encyclopedia is designed to present summarized information with technical foundations, but also with practical applicability of the collected information.
This book will be a key tool for a variety of individuals, including design power engineers, technical staff, researchers in the field, and faculty, students and trainees in academic institutions.
1. Introduction to mathematics for electrical and electronics engineering - p. iii 2. Basic electric and electromagnetic magnitudes and units - p. iii 3. Basics of complex numbers in electrical and electronics engineering - p. iii 4. Trigonometric and exponential forms of complex numbers - p. iii 5. Logarithms for electric and electronic engineering - p. iii 6. Scalar, phasors and vector magnitudes for electric and electronic engineering - p. iii 7. Electrical network equations - p. iii 8. Theorems for circuit analysis - p. iii 9. Matrix operations in electrical engineering: sparse matrix - p. iii 10. Representations of voltage and current systems - p. iii 11. Single variables functions in electrical engineering - p. iii 12. Differential equations basics - p. iii 13. Linear and non-linear equations and equation systems - p. iii 14. Partial derivatives and jacobian matrix - p. iii 15. Periodical waveforms in electrical and electronic engineering - p. iii 16. Fourier transform and Fourier series - p. iii 17. Spectral analysis and spectral density - p. iii 18. Circuit analysis in the frequency domain - p. iii 19. Laplace transform: basics and main properties - p. iii 20. Introduction to digital sampled systems and nyquist sampling theorem - p. iii 21. Synchronous sampling and practical frequency selection - p. iii 22. Z-transform: basics and main properties - p. iii 23. Digital filters - p. iii 24. Binary codes - p. iii 25. Digital functions - p. iii 26. Fundamentals of Boolean algebra - p. iii 27. Programmable solutions - p. iii 28. Mathematical programming for power systems - p. iii 29. Introduction to probability theory - p. iii 30. Uncertainty modeling in electrical power engineering: stochastic programming - p. iii 31. Uncertainty modeling in electrical power engineering: robust optimization - p. iii 32. Optimal power flow under uncertainty - p. iii 33. Power system security, reliability, restoration and resiliency - p. iii 34. A review on economic dispatch problems from problem formulations point of view and required data - p. iii 35. Operating economics and pricing in power systems - p. iii 36. Integration of renewable energy sources, energy storages, and their impacts - p. iii 37. Numerical algorithms for protection and metering devices - p. iii 38. Abstract - p. iii 39. Introduction - p. iii 40. Phasor estimation techniques - p. iii 41. Frequency estimation - p. iii 42. Synchronized phasors - p. iii 43. Model based algorithms - p. iii 44. Traveling wave based protection algorithms - p. iii 45. Distribution protection using smart meters - p. iii 46. Numerical algorithms for IEC 61850 based devices - p. iii 47. References - p. iii 48. Enabling technologies for resilient time synchronization of wide area power system monitoring - p. iii 49. Power system grounding and its effect on surrounding components - p. iii 50. Power definitions for electrical circuits with nonsinusoidal and unbalanced voltages and currents - p. iii 51. System integrity protection schemes - p. iii 52. Condition monitoring of rotating electrical machines - p. iii 53. Application of model predictive control in wind farm - p. iii 54. Integrated energy system - p. iii 55. Climate change mitigation in power systems - p. iii 56. Power system loads modeling - p. iii 57. Voltage stability in future power systems - p. iii 58. Control interactions resulting from converter interfaced generation - p. iii 59. Data-driven approaches for power system operation and planning under high renewable energy penetration - p. iii 60. Modern power system state estimation methods - p. iii 61. Wide Area Monitoring, Protection and Control (WAMPAC) - p. iii 62. Hardware in the loop testing for power systems - p. iii 63. Measuring technologies for future power grids - p. iii 64. Technologies for data collection in power systems - p. iii 65. Advance Metering Infrastructure in Smart Grids - p. iii 66. Communication systems for smart power systems - p. iii 67. Energy storage in distribution power systems - p. iii 68. Existing regulatory frameworks in smart power distribution - p. iii 69. Business and market models in power distribution systems - p. iii 70. Transactive energy in power systems: concepts, techniques and applications - p. iii 71. Peer to peer electricity markets - p. iii 72. Self-consumption in smart distribution systems - p. iii 73. Ancillary services provision in terminal distribution systems - p. iii 74. The role of DSOs, retailers, utilities, and aggregators in the new distribution network paradigm - p. iii 75. An overview on smart buildings - p. iii 76. Smart meters - p. iii 77. Power electronics for smart grids - p. iii 78. Smart inverters and smart converters - p. iii 79. Local energy markets - p. iii 80. The use of block chain technologies in smart power systems - p. iii 81. Internet of Things (IoT) for power system applications - p. iii 82. Big Data applications in power systems - p. iii 83. Artificial Intelligence applications for power systems (including Machine Learning) - p. iii 84. Simulation tools for power systems applications - p. iii 85. Distribution system modelling - p. iii 86. Power flow algorithms for three-phase unbalanced distribution systems - p. iii 87. State estimation in distribution systems - p. iii 88. Planning smart power systems - p. iii 89. Introduction to power electronics - p. iii 90. AC-DC converters (rectifiers) - p. iii 91. DC-DC converters (choppers and SMPS) - p. iii 92. DC-AC converters (inverters) - p. iii 93. AC-AC controllers (AC voltage controllers and cycloconverters) - p. iii 94. Real circuit components and system design considerations - p. iii 95. Inductor design for power electronics applications - p. iii 96. Electromagnetic compatibility for power electronics - p. iii 97. Resonant converters - p. iii 98. Specific topologies and circuits: challenges in low power - p. iii 99. System design: domestic—wireless charging, induction heating - p. iii 100. System design: lighting - p. iii 101. Power converters for renewable energy: solar - p. iii 102. Power converters for renewable energy: wind - p. iii 103. Solid-State transformers - p. iii 104. Diagnosing power electronics converters faults - p. iii 105. Power system resilience (end user) and critical infrastructure - p. iii 106. Linear and nonlinear systems in continuous time: application to power converters - p. iii 107. Properties and control stability analysis of linear and nonlinear systems: applications to power converters - p. iii 108. PID controller design - p. iii 109. Practical linear controllers for power electronics and drives - p. iii 110. PID controller with computational optimization - p. iii 111. Sliding mode control: from basic principles to modern techniques - p. iii 112. Load frequency control design in state space - p. iii 113. Design of state estimators for controls of power systems - p. iii 114. Principle of model-based control - p. iii 115. Causal ordering graph and model-based control - p. iii 116. Energetic macroscopic representation and inversion-based control - p. iii 117. Bond-Graph approach and model-based control - p. iii 118. PWM control of inverters - p. iii 119. Fundamental design of electric motor control systems - p. iii 120. Advanced control algorithms for electric machine drives - p. iii 121. Control of fuel cell systems - p. iii 122. Modeling, control, and simulation of a variable speed wind energy conversion system connected to the power grid - p. iii 123. Control of photovoltaic systems - p. iii 124. Energy management strategies for HEVs: introduction and positioning - p. iii 125. Rule-based energy management of hybrid electric vehicles focus on load following strategy - p. iii 126. Management of the energy storage hybridization in electric vehicles - p. iii 127. Dynamic programming method for electrified vehicles - p. iii 128. FPGA-based control for power electronics applications - p. iii 129. Introduction to Hardware-In-the-Loop (HIL) simulations of electrical power systems - p. iii 130. Controller hardware-in-the-loop simulation: step by step guide - p. iii 131. Power hardware-in-the-loop methodology and implementation: energy conversion system applications - p. iii 132. Control systems with compact-RIO implementation - p. iii 133. Supervisory control of discrete event systems under total and partial observation - p. iii 134. Decentralized architectures for supervisory control of discrete event systems - p. iii 135. Supervisory control of real-time discrete event systems - p. iii 136. Index - p. iii 137. Author Index - p. iii
