Of the ...big three... components of the electricity infrastructure, distribution typically gets the least attention, and no thorough, up-to-date treatment of the subject has been published in years. Filling that void, the Electric Power Distribution Handbook provides comprehensive information on the electrical aspects of power distribution systems. It is an unparalleled source for the background information, hard-to-find tables, graphs, methods, and statistics that power engineers need, and includes tips and solutions for problem solving and improving performance. In short, this handbook gives readers the tools they need to understand the science and practices of distribution systems.

Of the "big three" components of electrical infrastructure, distribution typically gets the least attention. In fact, a thorough, up-to-date treatment of the subject hasn’t been published in years, yet deregulation and technical changes have increased the need for better information. Filling this void, the Electric Power Distribution Handbook delivers comprehensive, cutting-edge coverage of the electrical aspects of power distribution systems. The first few chapters of this pragmatic guidebook focus on equipment-oriented information and applications such as choosing transformer connections, sizing and placing capacitors, and setting regulators. The middle portion discusses reliability and power quality, while the end tackles lightning protection, grounding, and safety. The Second Edition of this CHOICE Award winner features: 1 new chapter on overhead line performance and 14 fully revised chapters incorporating updates from several EPRI projects New sections on voltage optimization, arc flash, and contact voltage Full-color illustrations throughout, plus fresh bibliographic references, tables, graphs, methods, and statistics Updates on conductor burndown, fault location, reliability programs, tree contacts, automation, and grounding and personnel protection Access to an author-maintained support website, distributionhandbook.com, with problems sets, resources, and online apps An unparalleled source of tips and solutions for improving performance, the Electric Power Distribution Handbook, Second Edition provides power and utility engineers with the technical information and practical tools they need to understand the applied science of distribution.

Proper operation of sensitive equipment requires attention to transient disturbances, grounding practices, and standby power needs. This second edition of the successful AC Power Systems Handbook focuses on engineering technology essential to the design, maintenance, and operation of alternating current power supplies. What's New in the Second Edition? Expanded discussion on power-system components New chapter on grounding practices Appendix covering engineering data and tables Updated material in all chapters Serving engineering personnel involved in the specification, installation, and maintenance of electronic equipment for industry, this revision comprehensively examines the design and maintenance of ac power systems for critical-use applications. AC Power Systems Handbook also reflects the increased movement toward microelectronic equipment and microprocessor-based systems as well as the increased priority among electronics engineers on the protection of such systems.

This book comprehensively tackles the challenges and solutions related to power quality and harmonics management in modern power systems. It covers many topics, beginning with the significance of maintaining power quality in the presence of distributed generation and power electronic-based technologies. It explores the impact of nonlinear loads and novel equipment on power quality and emphasizes its significance in a competitive energy environment. The book also discusses renewable-based distributed generation and hosting capacity studies. Another key focus of the book is the impact of harmonics on electrical networks. It highlights the consequences of harmonics generated by electronic devices and emphasizes the need for control and mitigation measures. The distinction between linear and nonlinear loads is explained, and fundamental indicators of electrical harmonics are discussed. The book provides insights into frequency domain models of nonlinear loads in power systems, emphasizing the importance of understanding and modeling harmonics. It also evaluates the effectiveness of active filters in mitigating power system harmonics and explores the performance efficiency of the shunt hybrid system. Furthermore, the book offers a multidisciplinary perspective on energy security in the face of climate change and growing uncertainties. It examines energy security from various angles and advocates for integrating resilience thinking into energy security policies. Finally, this book provides a foundation for understanding and addressing the challenges associated with power quality and harmonics in modern power systems, offering practical approaches and solutions to enhance system performance and reliability.