Power System Transients: Theory and Applications, Second Edition

✍ Scribed by Ametani, Akihiro; Baba, Yoshihiro; Nagaoka, Naoto; Ohno, Teruo; Yamabuki, Koichi

• Publisher: CRC Press
• Year: 2017
• Tongue: English
• Leaves: 573
• Edition: Second edition
• Category: Library

✦ Synopsis

Using formulas simple enough to be applied using a pocket calculator, this book presents analytical methods for transient analysis. It examines the theory of numerical simulation methods, such as the EMTP (circuits theory-based approach) and numerical electromagnetic analysis. The book highlights transients in clean or sustainable energy systems, such as smart grids and wind farms, since they require a different approach than overhead lines and cables. The simulation examples provided include: arcing horn flashover, a transient in a grounding electrode, and an induced voltage from a lightning channel. Read more...

Abstract: Using formulas simple enough to be applied using a pocket calculator, this book presents analytical methods for transient analysis. It examines the theory of numerical simulation methods, such as the EMTP (circuits theory-based approach) and numerical electromagnetic analysis. The book highlights transients in clean or sustainable energy systems, such as smart grids and wind farms, since they require a different approach than overhead lines and cables. The simulation examples provided include: arcing horn flashover, a transient in a grounding electrode, and an induced voltage from a lightning channel

✦ Table of Contents

Content: 1. Theory of distributed-parameter circuits and impedance/admittance formulas --
2. Transients on overhead lines --
3. Transients on cable systems --
4. Transient and dynamic characteristics of new energy systems --
5. Numerical electromagnetic analysis methods and their application in transient analyses --
6. Electromagnetic disturbances in power systems and customer homes --
7. Grounding --
8. Problems and application limits of numerical simulations.

✦ Subjects

Transients (Electricity);Electric power system stability.