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Simulation of Power System with Renewables provides details on the modelling and efficient implementation of MATLAB, particularly with a renewable energy driven power system. The book presents a step-by-step approach to modelling implementation, including all major components used in current power systems operation, giving the reader the opportunity to learn how to gather models for conventional generators, wind farms, solar plants and FACTS control devices. Users will find this to be a central resource for modelling, building and simulating renewable power systems, including discussions on its limitations, assumptions on the model, and the implementation and analysis of the system.
- Presents worked examples and equations in each chapter that address system limitations and flexibility
- Provides step-by-step guidance for building and simulating models with required data
- Contains case studies on a number of devices, including FACTS, and renewable generation
Power system engineers and researchers, electrical engineers and engineering researchers, solar energy engineers and those working in the implementation of efficient power systems
Purpose of the book and guide on how to use the book
Introduction to power systems, recent progress, issues and challenges
2. Network modelling
Discussion of different types of network representation (Z , dynamic or EMTP)
Admittance and impedance model of three phase systems
Modelling of Transformer with off-nominal taps
Vector approach in Simulink
Power flow computation.
Study: Power flow result (Req. II)
3. Synchronous machine modelling
Description of different synchronous machine models and assumption used
Description and key equations of synchronous machine model in d-q reference
Step-by-step procedure for building Simulink blocks
Study: SMIB test system time domain results (Req. II - III)
4. Analysis and controller design ideas
Eigenvalue, Eigenvectors, participation factors, modal controllability, observability, residue, transfer function, singular value decomposition, matrix norms
Control design from a plant model
Study: SMIB test system modal results (Req. II - IV)
5. Load modelling
Discussion of different types of load representation (ZIP and dynamic)
Description, key equations and integration of ZIP model
Study: Four machine system model results (Req. II - V)
6. Modelling of wind power
Type 1, Type 2 , Type 3 and Type 4 wind turbine generator (WTG) models turbine and gear box models, pitch control model, modelling for Cp-curve Simulation
Study: Wind system model results (Req. II - VI)
7. Modelling of solar generation
Discussion on methods of solar power generation
Modelling of solar generation for network power flow and stability studies
Study: Solar system model results (Req. II - V, VII)
8. Modelling of FACTS devices
Approach to build static VAR compensator (SVC), STATCOM, Thyristor-Controlled Series Compensation (TCSC) models and phase shifter /quadrature booster model
Approach to integrate models into the four machines system
Study: Facts model study results (Req. II - V, VII)
9. HVDC system modelling and simulation
HVDC system model description
Integration into the small multi-machine system model
ACDC power flow
Study: HVDC model study results (Req. II - V, IX)
10. Study of Inter-area oscillations in power system
Description of inter-area oscillations and their significance in power systems
Study: Case studies of inter-area oscillation using FACTS devices, HVDC and renewable generation. (Req. II - X)
- No. of pages:
- © Academic Press 2020
- 1st October 2019
- Academic Press
- Paperback ISBN:
- eBook ISBN:
was a Research Associate in the Control and Power Research Group at the Department of Electrical and Electronic Engineering at Imperial College London. He received the B.Tech. degree from Mahatma Gandhi University, India, the M.S. degree from the Indian Institute of Technology Madras, India, and the Ph.D. degree from Imperial College London, U.K., in 2002, 2006, and 2012, respectively, currently Linash is working as HVDC Engineer at Mitsubishi Electric Europe, UK.
HVDC Engineer, Mitsubishi Electric Europe, UK
Stefanie Kuenzel received the PhD degree from Imperial College London UK in 2014. She is currently Head of the Power Systems group and Lecturer with the Department of Electronic Engineering at Royal Holloway University of London. She is an editor for IEEE Transactions on Sustainable Energy and her research interests include renewable generation, smart metering and transmission, including HVDC.
Royal Holloway University of London
Dr. Bikash Pal is Professor of Power Systems at the Department of Electrical and Electronic Engineering, Imperial College London, London. He is research active in dynamics, stability, estimation and control of power system dominated by renewable generations. At Imperial College London, he teaches various power system courses at the graduate and post graduate level
Professor of Power Systems, Imperial College London, UK
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