This laboratory manual for students of Electronics, Electrical, Instrumentation, Communication, and Computer engineering disciplines has been prepared in the form of a standalone text, offering the necessary theory and circuit diagrams with each experiment. Procedures for setting up the circuits and measuring and evaluating their performance are designed to support the material of the authors' book Analog Electronics (also published by PHI Learning). There are twenty-five experiments. The experiments cover the basic transistor circuits, the linear op-amp circuits, the active filters, the non-linear op-amp circuits, the signal generators, the voltage regulators, the power amplifiers, the high frequency amplifiers, and the data converters. In addition to the hands-on experiments using traditional test equipment and components, this manual describes the simulation of circuits using PSPICE as well. For PSPICE simulation, any available standard SPICE software may be used including the latest version OrCAD V10 Demo software. This feature allows the instructor to adopt a single laboratory manual for both types of experiments.

The second edition of this book has been updated and enlarged, especially the chapters on digital electronics. In the analog part, several additions have been made wherever necessary. Also, optical devices and circuits have been introduced. Analog electronics spans semiconductors, diodes, transistors, small and large-signal amplifiers, OPAMPs and their applications. Both BJT and JFET, and MOSFET are treated parallely so as to highlight their similarities and dissimilarities for thorough under-standing of their parameters and specifications. The digital electronics covers logic gates, combinational circuits, IC families, number systems codes, adders/subtractors, flip-flops, registers and counters. Sequential circuits, memories and D/A and A/D convertor circuits are especially stressed. Fabrication technology of integrated devices and circuits have also been dealt with. Besides, many new examples and problems have been added section-wise.The text is written in simple yet rigorous manner with profusion of illustrative examples as an aid to clear understanding. The student can self-study several portions of the book with minimal guidance.A solution manual is available for the teachers.

This Handbook is prepared after extensive simulations of circuits with some electronic and engineering software such as Multisim, Pspice, Proteus, MATLAB and Circuit Logic. The Handbook is designed basically to assist both tutors and students in the conduction of laboratory experiments. It has been proven over time that students tend to remember the experiments that they had conducted much better than the lectures that they received. The Handbook has been written in a simple technical language and the mathematics behind the experiments have been clearly derived and explained. The book is intended to add wealth of knowledge, especially in physics, electrical and electronic and communications engineering programmes for students in tertiary institutions such as Polytechnics, Monotechnics and Universities. This Handbook contains five sections and a total of thirty-three experiments which can be categorized into Basic Electronics Software, Communication System Engineering experiments and Optical Communication experiments. Each experiment contains objectives, materials, theoretical background and procedures. The procedure involves steps and questions for understanding the experiments being conducted.

This text offers a comprehensive introduction to a wide, relevant array of topics in analog electronics. It is intended for students pursuing courses in electrical, electronics, computer, and related engineering disciplines. Beginning with a review of linear circuit theory and basic electronic devices, the text moves on to present a detailed, practical understanding of many analog integrated circuits. The most commonly used analog IC to build practical circuits is the operational amplifier or op-amp. Its characteristics, basic configurations and applications in the linear and nonlinear circuits are explained. Modern electronic systems employ signal generators, analog filters, voltage regulators, power amplifiers, high frequency amplifiers and data converters. Commencing with the theory, the design of these building blocks is thoroughly covered using integrated circuits. The development of microelectronics technology has led to a parallel growth in the field of Micro-electromechanical Systems (MEMS) and Nano-electromechanical Systems (NEMS). The IC sensors for different energy forms with their applications in MEMS components are introduced in the concluding chapter. Several computer-based simulations of electronic circuits using PSPICE are presented in each chapter. These examples together with an introduction to PSPICE in an Appendix provide a thorough coverage of this simulation tool that fully integrates with the material of each chapter. The end-of-chapter problems allow students to test their comprehension of key concepts. The answers to these problems are also given.

This handbook is prepared after extensive simulations of the circuits with some electronic and engineering software such as Multisim, PSPICE and Circuit Logic. This handbook is designed basically to assist both tutors and students in the conduct of laboratory experiments. It has been proven over time that students tend to remember experiments they conducted much more than lectures they received. This handbook was written in a simple technical language and the mathematics behind the experiments clearly derived and explained. This book is intended to add a wealth of knowledge especially in physics, Electrical and Electronic and communications engineering for students in tertiary institutions such as Polytechnics, Monotechnics and Universities. This handbook contains thirty-eight experiments which can be categorized into Basic Electrical and Electronics Engineering experiments, Analogue Electronics experiments, and Digital Electronics experiments. Each experiment contains details of objectives, materials, theoretical background and procedures. The procedure involves steps and questions in understanding of the experiment being conducted. At the end of the book, some individual projects are present with the aim that, students who have mastered the experiments in the book can design basic electronics to solve world problems.

This book presents a collection of “lessons” on various topics commonly encountered in electronic circuit design, including some basic circuits and some complex electronic circuits, which it uses as vehicles to explain the basic circuits they are composed of. The circuits considered include a linear amplifier, oscillators, counters, a digital clock, power supplies, a heartbeat detector, a sound equalizer, an audio power amplifier and a radio. The theoretical analysis has been deliberately kept to a minimum, in order to dedicate more time to a “learning by doing” approach, which, after a brief review of the theory, readers are encouraged to use directly with a simulator tool to examine the operation of circuits in a “virtual laboratory.” Though the book is not a theory textbook, readers should be familiar with the basic principles of electronic design, and with spice-like simulation tools. To help with the latter aspect, one chapter is dedicated to the basic functions and commands of the OrCad P-spice simulator used for the experiments described in the book.

In this volume, leading experts present current achievements in the forefront of research in the challenging field of chaos in circuits and systems, with emphasis on engineering perspectives, methodologies, circuitry design techniques, and potential applications of chaos and bifurcation. A combination of overview, tutorial and technical articles, the book describes state-of-the-art research on significant problems in this field. It is suitable for readers ranging from graduate students, university professors, laboratory researchers and industrial practitioners to applied mathematicians and physicists in electrical, electronic, mechanical, physical, chemical and biomedical engineering and science.