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Power System Frequency Control: Modeling and Advances evaluates the control schemata, secondary controllers, stability improvement methods, optimization considerations, microgrids, multi-microgrids, and real-time validation required to model and analyze the dynamic behavior of frequency in power systems. Chapters review a range of advanced modeling and analytical considerations for single to multi-area networks using traditional and hybrid sources, including renewable sources, FACT devices and storage. The work also considers broad aspects of upstream and downstream control mechanisms which enable novel solutions in the area of automatic generation control in power system networks.

Highly recommended for power system engineers, researchers and practitioners with interests in load frequency control, automatic generation control, linearized models of isolated microgrid, and multi-microgrid, and hybrid LFC scheme, this book is an ideal resource on the topics discussed.

  • Explains the function and purpose of power network frequency loops, including primary control, secondary control and emergency control loops
  • Models LFC schemes from single-area to multi-area interconnected power systems
  • Demonstrates five fundamental controller designs alongside their main error principles
  • Evaluates dynamic response analysis with transient performance stated for modern indices
  • Discusses performance studies such as state-space modeling, random loading, sensitivity and stability analyses

1. Power System Frequency Control - p. iii 2. Cover - p. iii 3. Title Page - p. iii 4. Copyright - p. iv 5. Table of Contents - p. iv 6. Contributors - p. xi 7. 1 Fundamentals of load frequency control in power system - p. 1 8. 2 Controller design for load frequency control: Shortcomings and benefits - p. 17 9. 3 Transient/sensitivity/stability analysis of load frequency control - p. 41 10. 4 Significance of ancillary devices for load frequency control - p. 97 11. 5 Challenges and viewpoints of load frequency control in deregulated power system - p. 117 12. 6 Battery energy storage contribution to system frequency for grids with high renewable energy sources penetration - p. 133 13. 7 The power grid load frequency control method combined with multiple types of energy storage system - p. 151 14. 8 Sophisticated dynamic frequency modeling: Higher order SFR model of hybrid power system with renewable generation - p. 169 15. 9 Application of neural network based variable fractional order PID controllers for load frequency control in isolated microgrids - p. 203 16. 10 Coordinated tuning of MMC-HVDC interconnection links and PEM electrolyzers for fast frequency support in a multiarea electrical power system - p. 217 17. 11 Under-frequency load shedding control: From stage-wise to continuous - p. 249 18. 12 Emergency active-power balancing scheme for load frequency control - p. 265 19. 13 Keeping an eye on the load frequency control implementation using LabVIEW platform - p. 289 20. 14 An overview of the real-time digital simulation platform and realization of multiarea multisource load frequency control model using OPAL-RT - p. 311 21. 15 Design and testing capabilities of low-inertia energy system-based frequency control using Typhoon HIL real-time digital simulator - p. 321 22. Index - p. 331

Descripcion
Descripción

Power System Frequency Control: Modeling and Advances evaluates the control schemata, secondary controllers, stability improvement methods, optimization considerations, microgrids, multi-microgrids, and real-time validation required to model and analyze the dynamic behavior of frequency in power systems. Chapters review a range of advanced modeling and analytical considerations for single to multi-area networks using traditional and hybrid sources, including renewable sources, FACT devices and storage. The work also considers broad aspects of upstream and downstream control mechanisms which enable novel solutions in the area of automatic generation control in power system networks.

Highly recommended for power system engineers, researchers and practitioners with interests in load frequency control, automatic generation control, linearized models of isolated microgrid, and multi-microgrid, and hybrid LFC scheme, this book is an ideal resource on the topics discussed.

  • Explains the function and purpose of power network frequency loops, including primary control, secondary control and emergency control loops
  • Models LFC schemes from single-area to multi-area interconnected power systems
  • Demonstrates five fundamental controller designs alongside their main error principles
  • Evaluates dynamic response analysis with transient performance stated for modern indices
  • Discusses performance studies such as state-space modeling, random loading, sensitivity and stability analyses

1. Power System Frequency Control - p. iii 2. Cover - p. iii 3. Title Page - p. iii 4. Copyright - p. iv 5. Table of Contents - p. iv 6. Contributors - p. xi 7. 1 Fundamentals of load frequency control in power system - p. 1 8. 2 Controller design for load frequency control: Shortcomings and benefits - p. 17 9. 3 Transient/sensitivity/stability analysis of load frequency control - p. 41 10. 4 Significance of ancillary devices for load frequency control - p. 97 11. 5 Challenges and viewpoints of load frequency control in deregulated power system - p. 117 12. 6 Battery energy storage contribution to system frequency for grids with high renewable energy sources penetration - p. 133 13. 7 The power grid load frequency control method combined with multiple types of energy storage system - p. 151 14. 8 Sophisticated dynamic frequency modeling: Higher order SFR model of hybrid power system with renewable generation - p. 169 15. 9 Application of neural network based variable fractional order PID controllers for load frequency control in isolated microgrids - p. 203 16. 10 Coordinated tuning of MMC-HVDC interconnection links and PEM electrolyzers for fast frequency support in a multiarea electrical power system - p. 217 17. 11 Under-frequency load shedding control: From stage-wise to continuous - p. 249 18. 12 Emergency active-power balancing scheme for load frequency control - p. 265 19. 13 Keeping an eye on the load frequency control implementation using LabVIEW platform - p. 289 20. 14 An overview of the real-time digital simulation platform and realization of multiarea multisource load frequency control model using OPAL-RT - p. 311 21. 15 Design and testing capabilities of low-inertia energy system-based frequency control using Typhoon HIL real-time digital simulator - p. 321 22. Index - p. 331

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