The electrostatic precipitator remains one of the most cost-effective means of controlling the emission of particulates from most industrial processes, including pollution from power stations. The author reviews the basic theory and operation of precipitators, the characteristics of gas and particulates that impact on design and operation, and the design of high- and mains-frequency rectification equipment. Chapters also cover performance monitoring and enhancement, and fault detection.
The author shows how recent high-power, fast switching equipment has enabled new high-frequency energisation equipment to be introduced, which further improves precipitator performance and in turn reduces emissions and the level of pollution. As environmental standards and regulations are progressively tightened, improvements in pollution control technology such as electrostatic precipitators are vital for the continued operation of coal- and biomass-burning power plants, steelworks and other energy-intensive boilers and related industrial processes.
The book should help the professional engineer and non-specialist to assess the potential design and operation of electrostatic precipitators and how to govern and control performance. It will be of particular relevance to electrical engineers, process engineers and those in the environmental/pollution control fields.
The use of combined heat and power (CHP) plants and renewable energy sources reduces the amount of greenhouse gases released into the atmosphere and helps to alleviate the consequent climate change. The policies of many governments suggest that the proportion of electrical energy produced by these sources will increase dramatically over the next two decades. Unlike traditional generating units, these new types of power plant are usually 'embedded' in the distribution system or 'dispersed' around the network. As a result, conventional design and operating practices are no longer applicable; for example, power protection principles have to be revised and complex economic questions need to be resolved.
This book, intended for both students and practising engineers, addresses all the issues pertinent to the implementation of embedded generation. Much of the material was originally developed for the UMIST MSc/CPD course in Electrical Power Engineering so there is a strong tutorial element. However, since this subject is evolving very rapidly, the authors also discuss the technical and commercial consequences of the very high penetration of embedded generation that are to be expected in the years ahead.
This book surveys some of the techniques available to protect low-voltage electrical and electronic equipment and systems from lightning strikes and other power surges. The book examines the basic discharge processes in air and their effects, through transient electromagnetic field generation and interaction with overhead lines and underground cables. Attention is paid to the use of models for lightning protection and the book focuses on protection techniques based on modelled lightning protection zones. This is then logically developed in a major section on the practical components and applications of protective measures and systems, as well as testing techniques. These are placed in the context of current IEC and VDE standards. The book is highly illustrated with a vast number of photographs as well as system diagrams and tabular matter.
To obtain the full value from instrumentation, users require familiarity with a number of basic concepts and an understanding of how those building blocks relate to one another. In this book, Nihal Kularatna provides an introduction to the main families of instruments for students and professionals who have to carry out practical work in electronics and measurement. For each family he covers internal design, use and applications, highlighting their advantages and limitations from a practical application viewpoint.
Written in a simple, lucid and readable style, the book does not assume detailed knowledge but will give the reader an appropriate understanding of how to use instrumentation validly in its defined context. The book reviews the state-of-the art and extends the range of instruments to encompass digital families. The author also examines conventional and arbitrary waveform generators, spectrum analysis, logic analysers, instrument buses and VLSI testing, DSL/SDH/PDH and general transmission measurements, DSPs and the latest sensors.
This book will be of interest to professional electrical and electronic engineers and students, especially those working on design and test, but any who make use of instruments and instrumentation systems.
Using the statistical Bayesian viewpoint, renowned author David Middleton employs statistical decision theory specifically tailored for the general tasks of signal processing. Dr. Middleton also provides a special focus on physical modeling of the canonical channel with real-world examples relating to radar, sonar, and general telecommunications. This book offers a detailed treatment and an array of problems and results spanning an exceptionally broad range of technical subjects in the communications field.
Complete with special functions, integrals, solutions of integral equations, and an extensive, updated bibliography by chapter, An Introduction to Statistical Communication Theory is a seminal reference, particularly for anyone working in the field of communications, as well as in other areas of statistical physics. (Originally published in 1960.)
This is a Student Solutions Manual to accompany Function Modeling Change, 5th edition. Functions Modeling Change, 5th edition, is designed to accomplish the main goals of the Precalculus course: to build a solid mathematical foundation and prepare students for Calculus. The authors achieve this by focusing on a small number of key topics, thereby emphasizing depth of understanding rather than breadth of coverage. Functions Modeling Change, 5th edition, presents each function symbolically, numerically, graphically and verbally (the Rule of Four). Additionally, a large number of real-world applications, examples, and problems enable students to create mathematical models that relate to the world around them.