Electrical Machine

Authors: Veltman, Andre, Pulle, Duco W.J., De Doncker, Rik W.
Comprehensive user-friendly introductory text (in colour) of electrical drive systems
Introduction ‘ideal rotating transformer’ (IRTF-model) simplifies the understanding of electrical machine principles
Presentation of dynamic generic models which cover all major electrical machine types and modulation/control components of a drive
Dynamic and steady state analysis of transformers and electrical machines
Interactive learning process using ‘build and play’ simulation tutorials (Simulink® and Caspoc) provided online, which reinforce the theory presented

Learn everything about electrical fault analysis in electrical power system and ETAP program for electrical engineering

A course which will help to develop strong base on Electrical Engineering along with clearing some critical concepts

The aim of this book is to present methods needed for the analysis of electrical machine performances in transients and steady-state conditions by means of simulations in MATLAB-Simulink and by means of FEM. This book is devoted to students, PhD students, postgraduates of electrical engineering, researchers, and scientists dealing with the analysis, design, and optimization of electrical machine properties. The purpose is to present methods used for the analysis of transients and steady-state conditions.

Course for electrical power engineering student who wants to analyze faults in electric power system.

Volume 2 describes performance and outlines applications of electrical steels. Topics covered include localised characteristics of electrical steels; practical properties of electrical steels; other electrical steels; prediction of losses in electrical steels; application of electrical steels in transformer cores; applications of electrical steels in rotating electrical machines; non-sinusoidal magnetisation and applications; magnetic building factors in electrical steel cores; use of amorphous ribbon and nano-materials in transformer cores; electrical machine core vibration and noise; approaches to predictions and measurements of flux density and loss distributions in electrical machine cores; the application of international standards to magnetic alloys and steels; electrical steels and renewable energy systems; environmental impact of electrical steels; and typical performance data of commercial electrical steels. The companion Volume 1 covers the fundamentals and basic concepts of electrical steels.

Volume 2 describes performance and outlines applications of electrical steels. Topics covered include localised characteristics of electrical steels; practical properties of electrical steels; other electrical steels; prediction of losses in electrical steels; application of electrical steels in transformer cores; applications of electrical steels in rotating electrical machines; non-sinusoidal magnetisation and applications; magnetic building factors in electrical steel cores; use of amorphous ribbon and nano-materials in transformer cores; electrical machine core vibration and noise; approaches to predictions and measurements of flux density and loss distributions in electrical machine cores; the application of international standards to magnetic alloys and steels; electrical steels and renewable energy systems; environmental impact of electrical steels; and typical performance data of commercial electrical steels. The companion Volume 1 covers the fundamentals and basic concepts of electrical steels.