Kr Padiyar Hvdc Power Transmission Systems Pdf 95 High Quality
KR Padiyar HVDC Power Transmission Systems PDF: A Must-Read for Power Engineers
High Voltage Direct Current (HVDC) power transmission is a technology that offers many advantages over conventional Alternating Current (AC) power transmission, such as higher efficiency, lower losses, better controllability, and integration of renewable energy sources. HVDC power transmission systems are widely used for long-distance bulk power transfer, interconnection of asynchronous grids, and offshore wind power evacuation.
kr padiyar hvdc power transmission systems pdf 95
However, HVDC power transmission systems also pose many challenges and complexities, such as converter design, control and protection, harmonics and filters, stability and interaction analysis, and system planning and operation. To master these aspects of HVDC power transmission systems, one needs a comprehensive and up-to-date reference book that covers both the theoretical and practical aspects of this emerging technology.
One such book is KR Padiyar HVDC Power Transmission Systems PDF, which is a well-known and widely used textbook and reference book for students, researchers, and engineers in the field of power systems. This book provides a thorough and systematic treatment of HVDC power transmission systems, covering both the classical Line Commutated Converter (LCC) based HVDC links and the modern Voltage Source Converter (VSC) based HVDC links.
What You Will Learn from KR Padiyar HVDC Power Transmission Systems PDF
KR Padiyar HVDC Power Transmission Systems PDF is divided into 12 chapters and 4 appendices, covering the following topics:
Chapter 1: Introduction to HVDC Transmission: This chapter gives an overview of the history, development, applications, advantages, disadvantages, and future trends of HVDC power transmission systems.
Chapter 2: Analysis of Graetz Circuit: This chapter presents the basic analysis of the Graetz circuit, which is the simplest model of a converter bridge. It covers the ideal and non-ideal cases, commutation overlap angle, extinction angle, voltage and current waveforms, reactive power demand, harmonics generation, and DC link voltage control.
Chapter 3: Converter and HVDC System Control: This chapter discusses the principles and methods of converter and HVDC system control, such as firing angle control, current control, power control, frequency control, voltage control, reactive power control, modulation control, multiterminal DC system control, etc. It also covers both LCC and VSC based converters.
Chapter 4: Harmonics and Filters: This chapter deals with the harmonics generated by converters and their effects on AC and DC systems. It also describes the design and performance of various types of filters used to mitigate harmonics, such as passive filters, active filters, hybrid filters, etc.
Chapter 5: Transient Overvoltages in DC Line: This chapter analyzes the transient overvoltages in DC line due to various causes, such as switching operations, faults, lightning surges, etc. It also discusses the methods of protection against overvoltages, such as surge arresters,
metal oxide varistors (MOVs), etc.
Chapter 6: Converter Faults and Protection: This chapter describes the various types of converter faults and their effects on converter operation. It also explains the protection schemes used to detect and isolate converter faults,
such as valve group protection,
commutation failure protection,
converter transformer protection,
Chapter 7: Smoothing Reactor and DC Line: This chapter discusses the role and design of smoothing reactor in HVDC systems. It also covers the modeling and analysis of DC line for steady state
Chapter 8: Reactive Power Control: This chapter explains the need and methods of reactive power control in HVDC systems. It covers both AC side and DC side reactive power control devices,
such as shunt capacitors,
static VAR compensators (SVCs),
static synchronous compensators (STATCOMs),
Chapter 9: Multi-terminal DC Systems: This chapter introduces the concept and advantages of multi-terminal DC systems. It also presents the classification,
and protection of multi-terminal DC systems.
Chapter 10: Power Flow Analysis in AC/DC Systems: This chapter presents a novel approach to power flow analysis in AC/DC systems, based on a unified power flow controller (UPFC) model. It also discusses the solution techniques and applications of power flow analysis in AC/DC systems.
Chapter 11: Modeling and Simulation of AC/DC Systems: This chapter describes the modeling and simulation of AC/DC systems using various software tools, such as PSCAD/EMTDC, MATLAB/SIMULINK, etc. It also covers the modeling of converters, filters, DC line, AC system, and control systems.
Chapter 12: Studies on AC/DC System Interactions: This chapter discusses the various types of interactions that may occur between AC and DC systems, such as subsynchronous resonance (SSR), torsional interaction (TI), harmonic interaction (HI), voltage stability, transient stability, etc. It also explains the methods of analysis and mitigation of these interactions.
Appendix A: Thyristor and IGBT Valves for HVDC Systems: This appendix gives the details of thyristor and IGBT valves used for HVDC systems, such as valve structure, ratings, characteristics, losses, cooling, protection, etc.
Appendix B: Transient Simulation of Converters and DC Lines: This appendix presents the transient simulation of converters and DC lines using state-space models and switching functions. It also covers the simulation of faults and protection schemes.
Appendix C: Synchronous Generator Modeling for SSR Analysis: This appendix describes the modeling of synchronous generator for SSR analysis using various methods, such as classical model, Park's model, flux linkage model, etc.
Appendix D: CIGRE Benchmark Models for HVDC System Studies: This appendix provides the CIGRE benchmark models for HVDC system studies, such as monopolar link with ground return, bipolar link with metallic return, back-to-back link, multiterminal link, etc.
Appendix E: Modular Multilevel Converter (MMC) based VSC-HVDC Transmission: This appendix introduces the modular multilevel converter (MMC) based VSC-HVDC transmission, which is a new technology that offers many advantages over conventional VSC-HVDC transmission. It covers the structure,
and applications of MMC based VSC-HVDC transmission.
Why You Should Read KR Padiyar HVDC Power Transmission Systems PDF
KR Padiyar HVDC Power Transmission Systems PDF is a book that will help you to learn and apply HVDC power transmission systems in a comprehensive and systematic way. It will provide you with:
A clear and concise explanation of the concepts and principles of HVDC power transmission systems.
A detailed and practical description of the design and operation of HVDC power transmission systems.