Advanced Control of AC / DC Power Networks System of Systems Approach Based on Spatio-temporal Scales

The power engineering domain is facing huge challenges, with an increasing interest in intermittent renewable energies which are imposing major technical limitations. Operating ever closer to their limits, the industry-standard AC power grids are subject to instabilities. This book presents an insig...

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Main Author Benchaib, Abdelkrim
Format eBook
LanguageEnglish
Published Newark Wiley 2015
John Wiley & Sons, Incorporated
Wiley-Blackwell
Edition1
Subjects
Online AccessGet full text
ISBN111913577X
9781119135777
9781848218024
1848218028

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Abstract The power engineering domain is facing huge challenges, with an increasing interest in intermittent renewable energies which are imposing major technical limitations. Operating ever closer to their limits, the industry-standard AC power grids are subject to instabilities. This book presents an insight into DC grid systems, offering interesting issues to well controlled power grids, in contrast to current AC systems which provide the simplest and most economic connection method for short distances.
AbstractList The concept of Multi-Terminal DC grids (MTDC), where DC cables connect more than two AC/DC converter  stations  is  nowadays  spreading  driven  by  different  criteria,  all  necessaries  for  large-capacity RES grid integration, such as larger flexibility of grid operation, possibility of reversible power flows, increased redundancy, and reduction of maximum power loss in case of a grid disturbance.
The power engineering domain is facing huge challenges, with an increasing interest in intermittent renewable energies which are imposing major technical limitations. Operating ever closer to their limits, the industry-standard AC power grids are subject to instabilities. This book presents an insight into DC grid systems, offering interesting issues to well controlled power grids, in contrast to current AC systems which provide the simplest and most economic connection method for short distances.
The power engineering domain is facing huge challenges, with an increasing interest in intermittent renewable energies which are imposing major technical limitations. Operating ever closer to their limits, the industry-standard AC power grids are subject to instabilities. This book presents an insight into DC grid systems, offering interesting issues to well controlled power grids, in contrast to current AC systems which provide the simplest and most economic connection method for short distances.
Author Benchaib, Abdelkrim
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Snippet The power engineering domain is facing huge challenges, with an increasing interest in intermittent renewable energies which are imposing major technical...
The concept of Multi-Terminal DC grids (MTDC), where DC cables connect more than two AC/DC converter  stations  is  nowadays  spreading  driven  by  different ...
SourceID askewsholts
proquest
perlego
SourceType Aggregation Database
Publisher
SubjectTerms Control
Electric power systems
Load dispatching
Mathematical models
SCIENCE
Smart power grids
Subtitle System of Systems Approach Based on Spatio-temporal Scales
TableOfContents 2.6.1.2. Jacobean and resolution -- 2.6.2. The second method (for a droop control): generalized approach -- 2.6.2.1. Voltage/power droop -- 2.6.2.2. Voltage/current droop -- 2.6.3. Generalized power flow for multi-terminal DC grids with more than one slack bus -- 2.7. Steady state control of multi-terminal DC grids -- 2.7.1. Normal operation (without fault) -- 2.7.2. Power-step-change with master/slave strategy of control -- 2.7.3. Voltage margin control -- 2.7.4. Power-step-change for a voltage/power droop control -- 2.8. Primary and secondary control strategies -- 2.9. Dynamic control of multi-terminal DC grids -- 2.10. Plug-and-play in interconnected systems: application to MTDC grids -- 2.11. Control of the actuators connected to the power system -- 2.12. Concluding remarks -- 3: From Small Signal to Exact Linearization of Swing Equations -- 3.1. Introduction -- 3.2. Recalling stability analysis tools -- 3.2.1. Small signal analysis - first method of Lyapunov -- 3.2.2. Transient stability -- 3.2.2.1. Equal area concept -- 3.2.3. Global stability -- 3.2.4. Summary of stability approaches -- 3.3. Modeling of AC power network - swing equation -- 3.3.1. Nonlinear swing equation -- 3.3.2. Linearized swing equation -- 3.3.3. Development of the electrical power term -- 3.4. Simulation of AC swing equation -- 3.4.1. Post-fault simulation case (transient response) -- 3.4.1.1. Frequency response -- 3.5. Revisited swing equation for multi-machines power system modeling -- 3.6. Exact linearization of swing equation -- 3.7. Concluding remarks -- 4: Space Scale Properties for AC/DC Power Network Control and Operations: New Aggregation Methods in Power Systems -- 4.1. Introduction -- 4.2. Inter-area oscillation damping: locally intelligent substation -- 4.3. Free of space-scale model for AC systems: model reduction
Cover -- Title Page -- Copyright -- Contents -- Foreword -- Preface -- List of Figures -- List of Tables -- Introduction and Problem Positioning -- I.1. Today's power network conditions -- I.2. AC power network capabilities for more renewable energy penetration -- I.3. The future gird: toward DC grid development -- I.3.1. HVDC for electrical power transmission: integration of offshore wind energy -- I.3.2. MPDC for electrical power distribution: PV integration -- I.3.3. DC grid deployment -- I.4. DC system of systems: time and space scale tools for power network control -- I.5. Book organization -- 1: Modeling Control of VSCs -- 1.1. Introduction -- 1.2. Steady state voltage control systems - multi-terminal direct current (VSC-MTDC) model -- 1.2.1. Convention -- 1.2.2. DC side model -- 1.2.3. DC power flow calculation -- 1.2.4. AC side model -- 1.3. Control system of VSC based on VOC -- 1.3.1. Inner current controller -- 1.3.2. Outer power controller -- 1.3.2.1. Active power controller -- 1.3.2.2. Reactive power controller -- 1.3.3. DC voltage controller -- 1.3.3.1. Master/slave DC voltage control -- 1.3.3.2. DC voltage: active power droop (VD) -- 1.4. Conclusion -- 2: Time Scale Tools: a Control Solution for MTDC Complex Systems with Plug-and-Play Requirements -- 2.1. Introduction -- 2.2. Recalling VSC-HVDC control objectives -- 2.3. DC voltage control strategies for MTDC grids -- 2.3.1. Slack bus control (master/slave control) -- 2.3.2. Voltage margin control -- 2.3.3. Droop control -- 2.3.4. Dead-band-droop control -- 2.3.5. Undead-band-droop-control -- 2.3.6. Priority control -- 2.3.7. Ratio control -- 2.3.8. DC voltage control strategy summary -- 2.4. DC grid steady state modeling -- 2.5. Newton-Raphson technique -- 2.6. DC power flow -- 2.6.1. The first method: for master/slave control strategy -- 2.6.1.1. Mathematical formulation
4.3.1. Average model for N stations multi-terminal systems: aggregated power system -- 4.3.2. Free of space scale model for inter-regions application -- 4.4. Modeling of DC power networks -- 4.4.1. Mathematical approach of two-terminal DC grid modeling -- 4.4.2. Multi-terminal DC (MTDC) grid modeling: generalized MTDC model -- 4.4.3. Toward DC swing equation -- 4.4.4. Development of the electric power term Pe -- 4.4.5. AC and DC "swing equations" equivalence -- 4.5. AC/DC converter control to mimic synchronous generators -- 4.6. Concluding remarks -- Conclusion -- APPENDICES -- Appendix 1: Time Scale Tools: Control Tools Solution for MTDC Complex System with Plug-and-Play Requirements -- Appendix 2: Swing Equation Programming Code -- Inputs -- Outputs -- Swing equation parameters -- Simulation results -- Appendix 3: Kundur's 4-Machines-2-Areas System -- Bibliography -- Index
4.3. Free of space-scale model for AC systems: model reduction -- 4.4. Modeling of DC power networks -- 4.5. AC/DC converter control to mimic synchronous generators -- 4.6. Concluding remarks -- Conclusion -- APPENDICES -- Appendix 1: Time Scale Tools: Control Tools Solution for MTDC Complex System with Plug-and-Play Requirements -- Appendix 2: Swing Equation Programming Code -- Appendix 3: Kundur's 4-Machines-2-Areas System -- Bibliography -- Index -- End User License Agreement
Intro -- Table of Contents -- Title -- Copyright -- Foreword -- Preface -- List of Figures -- List of Tables -- Introduction and Problem Positioning -- I.1. Today's power network conditions -- I.2. AC power network capabilities for more renewable energy penetration -- I.3. The future gird: toward DC grid development -- I.4. DC system of systems: time and space scale tools for power network control -- I.5. Book organization -- 1: Modeling Control of VSCs -- 1.1. Introduction -- 1.2. Steady state voltage control systems - multi-terminal direct current (VSC-MTDC) model -- 1.3. Control system of VSC based on VOC -- 1.4. Conclusion -- 2: Time Scale Tools: a Control Solution for MTDC Complex Systems with Plug-and-Play Requirements -- 2.1. Introduction -- 2.2. Recalling VSC-HVDC control objectives -- 2.3. DC voltage control strategies for MTDC grids -- 2.4. DC grid steady state modeling -- 2.5. Newton-Raphson technique -- 2.6. DC power flow -- 2.7. Steady state control of multi-terminal DC grids -- 2.8. Primary and secondary control strategies -- 2.9. Dynamic control of multi-terminal DC grids -- 2.10. Plug-and-play in interconnected systems: application to MTDC grids -- 2.11. Control of the actuators connected to the power system -- 2.12. Concluding remarks -- 3: From Small Signal to Exact Linearization of Swing Equations -- 3.1. Introduction -- 3.2. Recalling stability analysis tools -- 3.3. Modeling of AC power network - swing equation -- 3.4. Simulation of AC swing equation -- 3.5. Revisited swing equation for multi-machines power system modeling -- 3.6. Exact linearization of swing equation -- 3.7. Concluding remarks -- 4: Space Scale Properties for AC/DC Power Network Control and Operations: New Aggregation Methods in Power Systems -- 4.1. Introduction -- 4.2. Inter-area oscillation damping: locally intelligent substation
Title Advanced Control of AC / DC Power Networks
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