Multiplier-Cum-Divider Circuits Principles, Design, and Applications

Chapter 1: Introduction 1.1: Characteristics 1.2: Specifications 1.3: Errors 1.4: Individual Error 1.5: Offset nulling 1.6: MCD types; Chapter 2: Basic Components of MCDs 2.1: Inverting amplifier 2.2: Non-inverting amplifier 2.3: Integrator 2.4: Analog switches 2.5: Analog multiplexer 2.6: Astable multivibrator; Chapter 3: Non – Linear Op-amp Circuits 3.1: Voltage comparator 3.2: Schmitt trigger 3.3: Half wave rectifier 3.4: Full wave rectifier 3.5: Peak detector 3.6: Sample and hold circuit 3.7: Log amplifier 3.8: Anti log amplifier; Chapter 4: Conventional MCDs 4.1 Log-antilog MCD – type I 4.2 Log-antilog MCD – type II 4.3 MCD using FETs 4.4 MCD using MOSFETs 4.5 MCDs using multipliers and dividers; Chapter 5: Saw tooth wave referenced time division MCD with multiplexers 5.1 Saw tooth wave generators 5.2 Double multiplexing – averaging MCD 5.3 Time division single slope peak detecting MCD 5.4 Time division multiply – divide MCD 5.5 Time division divide – multiply MCD; Chapter 6: Triangular wave referenced MCD with multiplexers 6.1 Triangular wave generators 6.2 Time division MCD 6.3 Time division divide – multiply MCD 6.4 Time division multiply – divide MCD; Chapter 7: Peak responding MCD with multiplexers 7.1 Double Single slope MCD 7.2 Double dual slope MCD with FBC 7.3 Double dual slope MCD with Flip-Flop 7.4 Pulse width integrated MCD 7.5 Peak detecting MCD using voltage tunable astable multivibrator; Chapter 8: Saw tooth wave referenced MCD with analog switches 8.1 Saw tooth generators 8.2 Double switching – averaging MCD 8.3 Time division single slope peak detecting MCD 8.4 Time division multiply – divide MCD 8.5 Time division divide – multiply MCD; Chapter 9: Triangular wave referenced MCD with analog switches 9.1 Time division MCD 9.2 Divide – multiply MCD 9.3 Multiply – divide MCD; Chapter 10: Peak responding MCD with analog switches 10.1 Double Single slope MCD 10.2 Double dual slope MCD with FBC 10.3 Double dual slope MCD with Flip-Flop 10.4 Pulse width integrated MCD 10.5 Peak detecting MCD using voltage tunable astable multivibrator; Chapter 11: Time division MCD with no reference 11.1 Time division MCD with no reference – type I – Multiplexing 11.2 Time division MCD with no reference – type II – Multiplexing 11.3 Time division MCD with no reference – type I – Switching 11.4 Time division MCD with no reference – type II - Switching; Chapter 12: Pulse Position Responding MCDs 12.1 Pulse position peak detecting MCD – multiplexing 12.2 Pulse position peak detecting MCD – switching 12.3 Pulse position peak sampling MCD – multiplexing 12.4 Pulse position peak sampling MCD – switching; Chapter 13: Applications of MCD 13.1: Balanced modulator 13.2: Amplitude modulator 13.3: Frequency doubler 13.4: Phase angle detector 13.5: RMS detector 13.6: Rectifier 13.7: Inductance measurement 13.8: Capacitance measurement 13.9: Automatic gain control - type I 13.10: Automatic gain control – type II; Chapter 14: Circuit Simulation 14.1: Simulation of time division multiply – divide MCD 14.2: Simulation of time division divide – multiply MCD 14.3: Simulation of time division MCD no reference – type I 14.4: Simulation of time division MCD no reference – type II; AFC Trainer Kit

Biography

K.C. Selvam is currently working as a technical officer in the department of electrical engineering at the Indian Institute of Technology in Madras, India. He has been doing research and development work for the last 30 years and has published more than 34 research papers in various national and international journals. His book Design of Analogue Multipliers with Operational Amplifiers was also published by CRC Pressis. In 1996 he received and award from IETE for the best paper and the students' journal award of IETE in 2017. A main area of his interest relates to the design and development of function circuits to find their applications in modern measurement and instrumentation systems.