Power System Stability and Control, Second Edition

The classic guide to power system stability and control, updated for the latest advances, contains hands-on information and real-world examples to understand, model, analyze, and solve problems using the latest technical tools.

Format: Hardback
Length: 976 pages
Publication date: 31 August 2022
Publisher: McGraw-Hill Education

This comprehensive engineering guide has been extensively revised to provide you with the latest hands-on knowledge required to comprehend, model, analyze, and effectively solve problems using cutting-edge technical tools. You will delve into the intricate structure of modern power systems, examine the various control levels, and understand the nature of stability issues.

Power System Stability and Control, Second Edition offers comprehensive explanations of equipment characteristics and modeling techniques, accompanied by real-world examples. This edition showcases coverage of adaptive control and other emerging applications, such as the cybersecurity of power systems.

The book encompasses a wide range of topics, including:

General characteristics of modern power systems: This section provides an overview of the fundamental aspects of modern power systems, including their structure, components, and operation.

The power grid stability problem: This chapter explores the challenges associated with maintaining the stability of the power grid, including factors such as generation, transmission, and distribution. It discusses the principles of power system stability and the various methods used to improve stability.

Synchronous machine theory and modeling: This section delves into the theory and modeling of synchronous machines, which are essential components of power systems. It covers topics such as synchronous machine parameters, representation in stability studies, and AC transmission.

Synchronous machine parameters: This chapter discusses the parameters that determine the performance and stability of synchronous machines, including their speed, torque, and power factor. It provides an in-depth explanation of how these parameters affect the operation of power systems.

Synchronous machine representation in stability studies: This section explores the methods used to represent synchronous machines in stability studies, including state space models, transfer function models, and time-domain models. It discusses the advantages and limitations of each representation method.

AC transmission: This chapter covers the principles of AC transmission, including the generation, transmission, and distribution of AC power. It discusses the various types of AC transmission systems, including high-voltage direct current (HVDC) and ultra-high-voltage (UHV) systems, and their applications.

Power system loads: This section examines the characteristics of power system loads, including their nature, behavior, and impact on power system stability. It discusses load modeling techniques, load forecasting, and load management strategies.

Excitation systems: This chapter explores the principles of excitation systems, which are used to control the voltage and frequency of power systems. It covers topics such as exciter types, exciter control, and power system stabilizers.

Prime movers and energy supply systems: This section discusses the various types of prime movers and energy supply systems used in power systems, including fossil fuel-fired power plants, renewable energy sources, and energy storage systems. It provides an overview of their characteristics, performance, and applications.

High-voltage DC transmission: This chapter explores the principles and technologies of high-voltage DC (HVDC) transmission, which is a promising alternative to traditional AC transmission. It covers topics such as HVDC transmission systems, converter technologies, and their applications in power systems.

Control of active and reactive power: This section discusses the control of active and reactive power in power systems, including the use of power electronics and power system stabilizers. It covers topics such as power flow, voltage, and frequency control, power system stabilizers, and their design and implementation.

Small-signal, transient, and voltage stability: This chapter explores the principles of small-signal, transient, and voltage stability in power systems. It covers topics such as power system dynamics, stability criteria, and stability enhancement techniques.

Sub-synchronous oscillations: This section discusses the phenomenon of sub-synchronous oscillations in power systems, including their causes, effects, and mitigation strategies. It covers topics such as damping mechanisms, passive and active damping techniques, and their application in power systems.

Mid- and long-term stability: This chapter examines the principles of mid- and long-term stability in power systems, including the use of power system models, simulation techniques, and optimization algorithms. It discusses the factors that affect power system stability and the methods used to improve stability over time.

Methods of improving stability: This section provides an overview of the various methods used to improve power system stability, including load management, generation dispatch, power system protection, and power system automation. It discusses the advantages and limitations of each method and provides practical examples of their application.

In conclusion, Power System Stability and Control, Second Edition is an essential resource for engineers, researchers, and students seeking to gain a comprehensive understanding of power system stability and control. With its comprehensive coverage of equipment characteristics and modeling techniques, real-world examples, and emerging applications, this edition provides you with the knowledge and tools needed to excel in this field. Whether you are a novice or an experienced professional, this book will help you navigate the complexities of modern power systems and solve stability problems effectively.

Weight: 1735g
ISBN-13: 9781260473544
Edition number: 2 ed