電力電子系統電磁瞬態過程(英文)（簡體書）

本書系統論述了電力電子系統瞬態過程理論和應用，內容包括：梳理和認識電力電子系統的結構和屬性；電力電子系統中電磁瞬態過程及其建模；功率開關器件瞬態特性、瞬態換流拓撲及其雜散參數和基於器件特性的系統安全工作區；電磁瞬態過程的量測、主電路電磁脈衝及其序列和高性能閉環控制及其限制；瞬態電磁能量平衡控制策略基本原理與控制方法；電磁瞬態分析在典型電力電子系統中的應用。
本書可供從事電力電子領域工作，特別是從事大容量電力電子系統研究、裝置開發和工程應用的專業人士參考，也可供高校相關專業教師和研究生參考。

趙爭鳴

主要從事電力電子與電力傳動、電機系統及其控制、大容量高壓變頻器與太陽能光伏發電等研究工作。先後在國際學術刊物、國際會議以及國內核心刊物上發表120多篇有關學術論文，其中，其中SCI收錄10篇，EI源刊58篇，ISTP10篇。參與編著《中國電力大百科全書》。98年獲教育部科技進步獎三等（第一完成人），2000年獲中國高校科技獎一等（第一完成人）先後獲六項國家專利（第一發明人）。

匯集作者及其研究團隊十餘年來的主要研究成果，可以指導大容量特種高性能電力電子變換器的z優設計和高效、可靠運行。

The transient analysis of power electronics systems， successor of the motor dynamic analysis， and power system transient analysis， is shaping the perspective， forming the new mindset and booming new ideas， methodology， and techniques of the electrical engineering， which could ultimately influence the dynamic analysis of modem electrical engineering.
Different from the machinery and power system， power electronics was defined as an interdisciplinary engineering branch since it was bom， involving power semiconductor， power conversion circuit， control of the switch and circuit， electromagnetic field， thermal analysis， mechanical assembly， etc. Especially with the introduction of fully controlled semiconductor switches and the pulse width modulation （PWM）， the continuous electromagnetic energy is translated into quasi-discrete and controllable energy pulse sequences， obstructing the conventional large-timescale electromagnetic transient analysis in machinery and power system from being applied to power electronics. Along with puzzles of pulsed electromagnetic transients came the evolutionary cognition of the electromagnetic energy.From this perspective， the development of power electronics deepens and widens the content of the whole electrical engineering.
A power electronics system consists of the semiconductor switch， electronics circuit， control， etc. Although all elements in the circuit display different characteristics， at the full-system level their harmonious interaction yields the power electronics system as an organic combination. Generally， the power electronics system is a combination of the software and hardware， an interaction of the energy and information， an effective transformation between the linearity and nonlinearity， a mixture of the discrete and continuity， and a coordination of multiple timescales. All such special and comprehensive characteristics exhibit the property of power electronics.The related power electronics technique is in charge of the controllable energy transformation under such characteristics， balances the electromagnetic energy in transients， and deals with the relationship between the device and equipment， between the control and the main circuit， and between stray parameters and lumped parameters .

1 Introduction
1．1 Decomposition of Power Electronics Systems
1．1．1 Power Semiconductor Devices
1．1．2 Power Conversion Circuit
1．1．3 Pulse Control
1．2 Synthesis of Power Electronics Systems
1．2．1 Integration of Software and Hardware
1．2．2 Interaction Between Information and Energy
1．2．3 Transfer Between Linearity and Non-linearity
1．2．4 Mixture of Continuity and Discreteness
1．2．5 Coordination of Multi-timescale Subsystems
1．3 Applications of Power Electronics Systems
1．3．1 Flexible AC or DC Current Transmission
1．3．2 Power Electronic Systems in Grid-Tied Renewable Energy Generation
1．3．3 Traction System
1．4 Existing Challenges in Power Electronics Systems
1．4．1 Misunderstanding the Short-Timescale Switching Process of Power Switches
1．4．2 Idealization of Power-Conversion Topology for Transient Study
1．4．3 Unrecognizing the Difference Between Information Pulses and Energy Pulses
1．4．4 Misidentifying Electromagnetic Transients

2 Electromagnetic Transients and Modelliing
2．1 Electromagnetic Transients of Power Electronics Systems
2．1．1 Electromagnetic Transients in the Main-Power Loop
2．1．2 Electromagnetic Transients in the Gate-Drive Loop
2．1．3 Electromagnetic Transients in the Control Loop
2．2 Mathematical Models of Electromagnetic Transients
2．2．1 Modelling Electromagnetic Transients
2．2．2 Transient Model of the Main-Power Loop
2．2．3 Transient Models of Electric Components
2．2．4 Transients Model of Gate-Drive and Control Circuits
2．3 Timescale Difference and Impact
2．3．1 Comparison of Different Time-Scale Transients
2．3．2 Correlations Among Different Time-Constant Loops
2．3．3 Impact of the Time-Constant Difference
2．3．4 Loop-Parameter Matching for Energy Balancing
2．4 Electromagnetic Pulses and Pulse Sequences
2．4．1 Mathematical Expression of the Electromagnetic Pulses and Pulse Sequences
2．4．2 Propagation and Deformation of the Pulse and Pulse Sequence
2．4．3 Time and Logic Combination of Pulse Sequence
……

3 Transient Characteristics of Power Switches
4 Transient Commutation Topology and Its Stray Parameters
5 System Safe Operation Area Based on Switching Characteristics
6 Measurement and Observation of Electromagnetic Transients
7 Electromagnetic Pulses and Sequences in Main Circuit
8 High-Performance Closed-Loop Control and Its Constraints
9 Balance of Electromagnetic Energy in Transients
10 Applications of Transient Analysis in Power Converters

References