<?xml version="1.0" encoding="UTF-8" standalone="no"?><?xml-stylesheet href="http://www.blogger.com/styles/atom.css" type="text/css"?><rss xmlns:itunes="http://www.itunes.com/dtds/podcast-1.0.dtd" version="2.0"><channel><title>ALL ENGINEERS BLOG</title><description>ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK</description><managingEditor>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</managingEditor><pubDate>Fri, 1 Nov 2024 01:38:46 -0700</pubDate><generator>Blogger http://www.blogger.com</generator><openSearch:totalResults xmlns:openSearch="http://a9.com/-/spec/opensearchrss/1.0/">75</openSearch:totalResults><openSearch:startIndex xmlns:openSearch="http://a9.com/-/spec/opensearchrss/1.0/">1</openSearch:startIndex><openSearch:itemsPerPage xmlns:openSearch="http://a9.com/-/spec/opensearchrss/1.0/">25</openSearch:itemsPerPage><link>http://waytoengg.blogspot.com/</link><language>en-us</language><itunes:explicit>yes</itunes:explicit><itunes:subtitle>ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK</itunes:subtitle><itunes:category text="Education"/><itunes:owner><itunes:email>noreply@blogger.com</itunes:email></itunes:owner><xhtml:meta content="noindex" name="robots" xmlns:xhtml="http://www.w3.org/1999/xhtml"/><item><title>FUEL CELL EV AND CONTROL SYSTEM HYDROGEN ECONOMY</title><link>http://waytoengg.blogspot.com/2011/03/fuel-cell-ev-and-control-system.html</link><category>fuel cell</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:41:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-2655749110784071230</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
&lt;div class="separator" style="clear: both; text-align: center;"&gt;
&lt;a href="https://blogger.googleusercontent.com/img/b/R29vZ2xl/AVvXsEhfta20nZu9Zf110FhbkMamgIURrs1lAN2U2Shft8J62wJxZW5bH1QjBT_FBG-2Ny9bb31rTHbkpVjy5j9YtsfOisWXo21I-t4TtFJBTNJodEmsIxIctC3OPab-7_77HGXGqQ78SXVnviRI/s1600/untitled.JPG" imageanchor="1" style="margin-left: 1em; margin-right: 1em;"&gt;&lt;img border="0" src="https://blogger.googleusercontent.com/img/b/R29vZ2xl/AVvXsEhfta20nZu9Zf110FhbkMamgIURrs1lAN2U2Shft8J62wJxZW5bH1QjBT_FBG-2Ny9bb31rTHbkpVjy5j9YtsfOisWXo21I-t4TtFJBTNJodEmsIxIctC3OPab-7_77HGXGqQ78SXVnviRI/s1600/untitled.JPG" /&gt;&lt;/a&gt;&lt;/div&gt;
&lt;br /&gt;&lt;/div&gt;</description><media:thumbnail xmlns:media="http://search.yahoo.com/mrss/" height="72" url="https://blogger.googleusercontent.com/img/b/R29vZ2xl/AVvXsEhfta20nZu9Zf110FhbkMamgIURrs1lAN2U2Shft8J62wJxZW5bH1QjBT_FBG-2Ny9bb31rTHbkpVjy5j9YtsfOisWXo21I-t4TtFJBTNJodEmsIxIctC3OPab-7_77HGXGqQ78SXVnviRI/s72-c/untitled.JPG" width="72"/></item><item><title>CONTROL SYSTEM LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/control-system-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:34:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-318665488888610037</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of Experiments: (To be performed minimum 10 experiments)&lt;br /&gt;  To determine the Gain of an Open Loop and Closed Loop System.&lt;br /&gt;  To Study the Effect of Disturbance On an Open loop and Closed Loop System.&lt;br /&gt;  To Determine the Transfer function of a DC Servomotor.&lt;br /&gt;  To Study the time response of a second order system.&lt;br /&gt;  Characteristics of Synchro Transmitter and Receiver Pair.&lt;br /&gt;  Determination of Transfer Function of an AC Servomotor.&lt;br /&gt;  To study a potentiometer as an Error Detector.&lt;br /&gt;  Study of bode Plot of a Type 0, Type Type II Systems and I.&lt;br /&gt;  Displacement Measurement using LVDT.&lt;br /&gt;  Simulation of Transfer Function using Op-Amp (Analog Computer Trainer)&lt;br /&gt;  Study of P, PI controller on second order system.&lt;br /&gt;  Study of PID controller on second order system.&lt;br /&gt;  To study the operation and Characteristic of a Stepper Motor.&lt;br /&gt;  To study the Lag Compensator and Lead Compensator.&lt;br /&gt;  To study the Lag-Lead Compensator.&lt;br /&gt;Apparatus Required:&lt;br /&gt;  An open and closed loop system with two input signals (one acting as reference and the other as&lt;br /&gt;the disturbance signal).&lt;br /&gt;  A R-L or R-C Circuit, Bread board, CRO, Multimeters, Function Generator.&lt;br /&gt;  Synchro Transmitter-receiver Pair.&lt;br /&gt;  An AC Servomotor.&lt;br /&gt;  A Potentiometer.&lt;br /&gt;  Bode Plot Analyzer.&lt;br /&gt;  Linear Variable Differential Transformer.&lt;br /&gt;  Analog Computer trainer&lt;br /&gt;  P, PI, PID Controller trainer.&lt;br /&gt;  Stepper Motor.&lt;br /&gt;  Lag Compensator, Lead Compensator, Lag-Lead Compensator.&lt;br /&gt;Reference Books:&lt;br /&gt;1) Control System Engg. By Nagrath and Gopal, JW&lt;br /&gt;2) Linear control systems; Prof. B.S.Manke, Khanna Publication.&lt;/div&gt;</description></item><item><title>ANALOG ELECTRONICS LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/analog-electronics-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:33:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-5393037609455130898</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments: (To be performed minimum 10 experiments)&lt;br /&gt;  Measurement of parameters of an operational amplifier:&lt;br /&gt;o Open Loop gain&lt;br /&gt;o I/P bias and offset currents.&lt;br /&gt;o I/P offset voltage&lt;br /&gt;o Slew rate&lt;br /&gt;o CMRR&lt;br /&gt;  To generate a square wave for a specified frequency and duty cycle, using Op Amp IC 741&lt;br /&gt;  To design an astable multivibrator using IC 555 timer for a given frequency.&lt;br /&gt;  To design a monostable multivibrator using IC 555 timer for a specified width period.&lt;br /&gt;  To study a emitter follower.&lt;br /&gt;  To study a cascaded amplifier.&lt;br /&gt;  To perform an adder operation using Op-Amp.&lt;br /&gt;  To perform a subtractor operation using a Op-Amp.&lt;br /&gt;  To perform a differentiator operation using an Op-Amp.&lt;br /&gt;  To perform an integrator operation using an Op-Amp.&lt;br /&gt;  To operate a Class A amplifier.&lt;br /&gt;  To operate a class B amplifier.&lt;br /&gt;  To operate a class C amplifier.&lt;br /&gt;  To operate a class AB amplifier.&lt;br /&gt;  To study the non-inverting &amp;amp; inverting operation of an Op-Amp.&lt;br /&gt;Apparatus Required:&lt;br /&gt;  IC-741&lt;br /&gt;  Bread Board&lt;br /&gt;  Resistors&lt;br /&gt;  Connecting wires&lt;br /&gt;  Capacitors&lt;br /&gt;  Signal Generator&lt;br /&gt;  CRO&lt;br /&gt;  Digital Multimeter&lt;br /&gt;Reference Book:&lt;br /&gt;  Integrated Circuit - Botkar&lt;br /&gt;  Introduction to OP-Amp- Gaykawad&lt;/div&gt;</description></item><item><title>ELECTRONIC INSTRUMENTS LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electronic-instruments-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:33:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-8264560231011826863</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments: (To be performed minimum 10 experiments)&lt;br /&gt;  Measurement of angular displacement using capacitive transducer.&lt;br /&gt;  Measurement of displacement using LVDT.&lt;br /&gt;  Measurement of force using strain gauge.&lt;br /&gt;  Measurement of pressure using Si sensor.&lt;br /&gt;  Measurement of intensity of light.&lt;br /&gt;  Measurement of displacement using inductive pick-up.&lt;br /&gt;  Measurement of liquid level using capacitive pick-up.&lt;br /&gt;  To demonstrate the operation of 7 segment display.&lt;br /&gt;  To demonstrate the operation of D/A converter.&lt;br /&gt;  To demonstrate the operation of A/D converter.&lt;br /&gt;  To Study Piezo-electric transducer.&lt;br /&gt;  Determination of gauge factor using strain gauge.&lt;br /&gt;  Measurement of temperature using phototransistor demonstration set up.&lt;br /&gt;  Measurement of force using strain gauge force transducer.&lt;br /&gt;  Measurement of displacement using capacitive pickup.&lt;br /&gt;Apparatus Required:&lt;br /&gt;  CRO,&lt;br /&gt;  Multimeter, Pin type patch cords,&lt;br /&gt;  Study Kits or Set-Up for respective experiments.&lt;br /&gt;Reference Book:&lt;br /&gt;  Electronic Instruments and Instrumentation Technology” by M.M.S. Anand, PHI Pbs.&lt;/div&gt;</description></item><item><title>ELECTRICAL MACHINE - II LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-machine-ii-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:32:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-3324417702073369175</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments: (To be performed minimum 10 experiments)&lt;br /&gt;1) Determination of synchronous impedance of alternator by open &amp;amp; short circuit test.&lt;br /&gt;2) Determination of Xd &amp;amp; Xq by slip circuit.&lt;br /&gt;3) Determination of Regulation of a Three-Phase Alternator by Direct Loading.&lt;br /&gt;4) Synchronizing of Alternator by lamp method.&lt;br /&gt;5) To determine regulation by MMF method.&lt;br /&gt;6) Determine of Potier Reactance Xp by Zero Power Factor Saturation curve.&lt;br /&gt;7) Plotting of V-curve of synchronous Motor.&lt;br /&gt;8) Determination of mechanical losses of 3-phase induction motor by no-load test.&lt;br /&gt;9) Determination of circuit parameter of 3-phase induction motor by open &amp;amp; block rotor test.&lt;br /&gt;10) Study of Induction Motor Starters.&lt;br /&gt;11) Measurement of Speed of Induction Motor by Measuring Rotor Frequency.&lt;br /&gt;12) Identification of stator winding of three-phase induction motor.&lt;br /&gt;13) Study of reversal 3-phase induction motor.&lt;br /&gt;14) Study of braking of 3-phase induction motor.&lt;br /&gt;15) Effect of variation of rotor resistance on XS torque slip characteristics of 3-phase induction motor.&lt;br /&gt;16) To determine the negative sequence reactance of a synchronous generator.&lt;br /&gt;17) To determine the positive sequence reactance of a synchronous generator.&lt;br /&gt;18) Determination of vector group of a three-phase transformer for zero degree phase displacement.&lt;br /&gt;19) Determination of vector group of a three-phase transformer for 180° phase displacement.&lt;br /&gt;20) Determination of vector group of a three-phase transformer for +30° and –30° phase&lt;br /&gt;displacement.&lt;br /&gt;Requirement:&lt;br /&gt;  3-phase Alternators&lt;br /&gt;  Resistive Load.&lt;br /&gt;  3-phase induction motor&lt;br /&gt;  Single phase variac&lt;br /&gt;  Three phase Variac&lt;br /&gt;  Ammeter, Voltmeters, Wattmeters.&lt;br /&gt;  Induction Motor.&lt;br /&gt;  Starters&lt;br /&gt;Reference Book:&lt;br /&gt;  Electrical machines, Nagrath and Kothari&lt;/div&gt;</description></item><item><title>ANALOG AND DIGITAL COMMUNICATION SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/analog-and-digital-communication.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:31:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-5568224289360229173</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Amplitude Modulation&lt;br /&gt;Need of amplitude modulation, Amplitude modulation, power relation. AM wave, generation of AM,&lt;br /&gt;balanced modular signal side band technique, suppression of unwanted sideband, side band&lt;br /&gt;transmission, demodulation, envelop detector, synchronous detector, noise in amplitude modulation&lt;br /&gt;system.&lt;br /&gt;UNIT II: Angle Modulation&lt;br /&gt;Mathematical equation of frequency modulation (FM), frequency spectrum, phase modulation (PM),&lt;br /&gt;relationship between PM and FM, pre-emphasis and de-emphasis, adjacent channel interference,&lt;br /&gt;comparison of narrow band and wide band FM, noise in angle modulation system, generation of FM,&lt;br /&gt;reactance modulator, frequency division multiplexing.&lt;br /&gt;UNIT III: Pulse Modulation System&lt;br /&gt;Pulse width modulation, pulse position modulation (PPM), pulse code modulation, sampling, Quantization&lt;br /&gt;of signals, time division multiplexing.&lt;br /&gt;UNIT IV: Digital Modulation Techniques&lt;br /&gt;Introduction, Digital modulation formats, types of digital modulation techniques, Coherent binary&lt;br /&gt;modulation techniques, BPSK, Coherent BFSK, Non coherent binary modulation techniques, Non&lt;br /&gt;coherent binary ASK, DPSK, QPSK, MSK, comparison of different techniques.&lt;br /&gt;Wave form coding Techniques, Discretisation in time and amplitude, Quantization, PCM, PCM generator,&lt;br /&gt;Quantizer, Transmission band width in PCM, PCM receiver, quantization noise/error in PCM, companding&lt;br /&gt;in PCM, Delta modulation, Adaptive delta modulation, DPCM, comparison of different DPM methods.&lt;br /&gt;UNIT V Information Theory&lt;br /&gt;Introduction, Sources of information, Contents in DMS, Contents of a symbol, Entropy, Information rate,&lt;br /&gt;Discrete memory less channel, Conditional joint entropies, mutual information, Channel capacity, Active&lt;br /&gt;white Gaussian channel, Source coding, Entropy coding, introduction to error control coding like Parity&lt;br /&gt;codes, Linear block codes, Hamming code and convolution codes.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Electrical Communication Systems”, Kennedy, TMH&lt;br /&gt;2. “Digital Communications” Sanjay Sharma, S.K. Kataria &amp;amp; Sons, New Delhi&lt;br /&gt;3. “An Introduction To Analog And Digital Communication”, Haykins, Wiely Pbs&lt;br /&gt;Reference Books:&lt;br /&gt;1. Analog and digital communication, Roden, PHI pbs.&lt;br /&gt;2. Communication engineering,Singh &amp;amp; Sapre PubTMH Pbs&lt;/div&gt;</description></item><item><title>COMPUTER SYSTEM ARCHITECTURE SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/computer-system-architecture-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:30:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-6339345216297747908</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I&lt;br /&gt;Basic Computing elements of analog computer, time and amplitude scaling simulation of linear simple&lt;br /&gt;and simultaneous differential equations and transfer functions, nonlinear function generators.&lt;br /&gt;UNIT II&lt;br /&gt;Requester transfer and Micro- Operations: Register transfer language, Inter – Register transfer,&lt;br /&gt;Arithmetic, Logic and shift micro operations, Control functions.&lt;br /&gt;Computer Organization and Design: Instruction, codes computer instructions, Timing and, control&lt;br /&gt;Execution of instructions, Input-Output and interrupts, Design of computer.&lt;br /&gt;UNIT III&lt;br /&gt;Central Processor organization: Processor bus organization, ALU, Stack Organization, Instruction&lt;br /&gt;formats, Addressing modes, Data transfer and manipulation, Program control, Parallel processor.&lt;br /&gt;Micro program control organization: Control memory, Address sequencing, Microprogram exaple,&lt;br /&gt;Microprogram sequencer, &amp;amp; Microinstruction formats.&lt;br /&gt;UNIT IV&lt;br /&gt;Arithmetic Processor Design: Comparison and subtraction, Algorithm for addition, Subtraction,&lt;br /&gt;Multiplication, division, Processor Configuration, Design of Control.&lt;br /&gt;Arithmetic algorithms: Arithmetic with signed 2’s complement numbers, Multiplication and Division,&lt;br /&gt;Floating point arithmetic operations, Decimal Arithmetic Unit and operations&lt;br /&gt;UNIT V&lt;br /&gt;I/O Organization: I/O interfaces, asynchronous data transfer, DMA, Priority interrupt, I/O processor,&lt;br /&gt;Multiprocessor system organization.&lt;br /&gt;Memory organization: Various memories – Auxiliary, Associative, Cache, Microcomputer, Virtual ones,&lt;br /&gt;and Memory Hierarchy, Memory Management hardware.&lt;br /&gt;Computer software: Assembly language, Assembler, program loops, subroutines, system.&lt;br /&gt;Text Books:&lt;br /&gt;1. Computer System Architecture by M. M. Mano&lt;br /&gt;2. Computer Architecture and Organization, J.P. Hayes Int’1 student edition, McGraw – Hill.&lt;br /&gt;Reference books:&lt;br /&gt;1. Structured computer organization 3rd Edn by A. Stannabaum.&lt;br /&gt;2. Computer Organization by V.C.Hamacher et al McGraw.&lt;br /&gt;3. Introduction of Digital computer Design by V. Rajaraman &amp;amp; T.Radhakrishnman.&lt;br /&gt;4. Analog computation and simulation by V. Rajaraman PHI&lt;/div&gt;</description></item><item><title>CONTROL SYSTEM ENGINEERING SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/control-system-engineering-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:29:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-2604372369554302620</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Introduction to Control problem&lt;br /&gt;Industrial control examples, transfer function models of mechanical systems, transfer function models of&lt;br /&gt;electrical systems, transfer function models of thermal systems, transfer function models of hydraulic&lt;br /&gt;systems, systems with dead time, control hardware and their models, electro-pneumatic valves,&lt;br /&gt;pneumatic actuators, closed loop systems, block diagram and signal flow graph analysis, transfer&lt;br /&gt;function.&lt;br /&gt;UNIT II: Basic Characteristics Of Feedback Control System&lt;br /&gt;Stability, steady state accuracy, transient accuracy, disturbance rejection, insensitivity and robustness,&lt;br /&gt;stability concept, relative stability, Routh stability criterion, time response of second order system, steady&lt;br /&gt;state errors and error constants, performance specifications in time domain, root locus method of design,&lt;br /&gt;controllers and compensators..&lt;br /&gt;UNIT III: Time and Frequency Response Analysis&lt;br /&gt;Root locus technique, Relationship between time domain and frequency response, polar plot, Bode plot,&lt;br /&gt;stability in frequency domain, Nyquist plots, Nyquist stability criterion, performance specifications in&lt;br /&gt;frequency domain, Nichol’s chart, effects of additional zero and additional poles.&lt;br /&gt;UNIT IV: Introduction to design:&lt;br /&gt;Compensator design (Cascade Lag, Cascade Lead, Cascade Lag-Lead) using root locus plots,&lt;br /&gt;compensator design (Cascade Lag, Cascade Lead, Cascade Lag-Lead) using Bode plots.&lt;br /&gt;UNIT V: State Variable Analysis&lt;br /&gt;Concept of state, state variable, state variable formulation and their solution, state models for liner&lt;br /&gt;continuous time functions, diagonalization of transfer function, solution of state equations, concept of&lt;br /&gt;controllability and observability.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Control System: Principles And Design”, M. Gopal, TMH Pbs.&lt;br /&gt;2. “Automatic Control System”, Kuo, PHI Pbs.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Modern Control Engineering”, Ogata, PHI Pbs.&lt;br /&gt;2. “Modern Control Engineering”, Nagrath and Gopal, PHI Pbs.&lt;/div&gt;</description></item><item><title>ANALOG ELECTRONICS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/analog-electronics-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:28:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-6584410069721185441</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Transients at high frequency&lt;br /&gt;The hybrid π common emitter transistor model, hybrid n-conductance, hybrid π-capacitance, CE short&lt;br /&gt;circuit gain with resistive load, the gain bandwidth product, emitter follower at high frequency.&lt;br /&gt;UNIT II: Large Scale Analysis&lt;br /&gt;Class-A large signal amplifiers, harmonic distortion, higher order harmonic generation, transformer&lt;br /&gt;coupled audio power amplifier, efficiency, push-pull amplifier, class-B amplifiers, and class-AB operation.&lt;br /&gt;UNIT III: Multistage Amplifier&lt;br /&gt;Classification of amplifier, distortion in amplifier frequency, response of an amplifier, low frequency&lt;br /&gt;response of RC coupled amplifier, band pass of cascaded stage, high frequency response of two&lt;br /&gt;cascaded CE transistor stages, multistage CE amplifier, High frequency response of two cascaded CE&lt;br /&gt;transistor stages, Darlington configuration.&lt;br /&gt;UNIT IV: Operational Amplifier&lt;br /&gt;Operational amplifier architecture, basic operational amplifier, inverting operational amplifier, non&lt;br /&gt;inverting operational amplifier, differential amplifier, offset error voltage and current, measurement of&lt;br /&gt;amplifier parameters, CMRR, slewing rate, basic operational amplifier applications, differential DC bridge&lt;br /&gt;amplifier.&lt;br /&gt;UNIT V: Integrated Circuit Fabrication&lt;br /&gt;Overview of IC Technology, unit steps used in IC fabrication, wafer cleaning, photolithiography, wet and&lt;br /&gt;dry itching, oxidation, diffusion, ion-implantation techniques for deposition of poly-silicon, silicon, silicon&lt;br /&gt;pnitride and silicon dioxide, metallization and passivation.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Electronic Circuit Discrete And Integrated”, Belove, PHI Pbs.&lt;br /&gt;2. “Integrated Electronics”, Millman and Halkias, PHI Pbs.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Microelectronics”, Millman, Wiely Pbs.&lt;/div&gt;</description></item><item><title>ELECTRONIC INSTRUMENTS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electronic-instruments-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:27:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-3602926839438486479</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Digital electronic instruments&lt;br /&gt;Introduction, specifications of digital meters, resolution, sensitivity, accuracy, average/true root mean&lt;br /&gt;square, crest factor, form factor, zero or offset frequency response, input resistance, input bias current.&lt;br /&gt;Digital voltmeters, Ramp technique, dual slope integrating type DVM&lt;br /&gt;UNIT II: Transducers&lt;br /&gt;Passive and active electrical transducers: resistive, capacitive, inductive, piezoelectric, photovoltaic, Hall&lt;br /&gt;effect transducers, selection of transducers, transducers characteristics, semiconductor photo-diode,&lt;br /&gt;photo transistor, frequency generating transducers, pressure inductive transducers, LVDT, differential&lt;br /&gt;output transducer, thermistor, strain gauge, measurement of angular and linear velocity using electrical&lt;br /&gt;transducers, reluctance pulse pick-ups, AC tachogenerators.&lt;br /&gt;UNIT III: Data acquisition system (DAS) and recorders&lt;br /&gt;Introduction of DAS, objective of DAS, signal conditioning of inputs, single and multi-channel DAS,&lt;br /&gt;computer based DAS, sample and hold, multiplexing, D/A, A/D conversion, general description of Data&lt;br /&gt;loggers, digital transducers, optical encoders, resistive digital encoders, shaft encoders.&lt;br /&gt;Recorders: introduction, Strip chart recorders, general description of XY recorders, galvanometer type&lt;br /&gt;recorders, potentiometric recorders.&lt;br /&gt;UNIT IV: Oscilloscope &amp;amp; Signal Generations&lt;br /&gt;Introduction, Basic Principal, CRT Feature, Block diagram of oscilloscope, simple CRO, Vertical amplifier,&lt;br /&gt;horizontal defecting system Triggered source CRO, typical CRT connection, measurement of Frequency&lt;br /&gt;&amp;amp; phase by Lissajous Figures.&lt;br /&gt;Signal generator: Introduction, sine wave generators, audio Frequency and Radio frequency signal&lt;br /&gt;generation, Function generators, Sequence &amp;amp; phase generators&lt;br /&gt;UNIT V: Programmable Logic Controllers:&lt;br /&gt;PLC: Introduction of PLC, PLC structure &amp;amp; operations response time, Basic ladder diagram, PLC&lt;br /&gt;resisters, Timer &amp;amp; counters, PLC, DC &amp;amp; AC i/ps. Module for PLC, Basic Process of PLC, PLC Hard ware&lt;br /&gt;&amp;amp; Configuration PLC hard ware components.&lt;br /&gt;Text Books:&lt;br /&gt;1. Electronic Instrumentation by H S Kalsi.&lt;br /&gt;2. Electronic Instruments and Instrumentation Technology” by M.M.S. Anand, PHI Pbs.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Electrical Measurement”, Kalsi, TMH Pbs.&lt;br /&gt;2. “Transducers And Instrumentation”, Murthy, PHI Pbs.&lt;br /&gt;3. “Electronic Instrumentation And Measurement Techniques”, Cooper, PHI Pbs.&lt;/div&gt;</description></item><item><title>ELECTRICAL MACHINE - II SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-machine-ii-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:26:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-514726479047909824</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Electrical Machines Principles&lt;br /&gt;Principle of electromechanical energy conversion. Construction of various rotating machines. Singly&lt;br /&gt;excited magnetic system, co-energy and field energy. Doubly excited magnetic system. Torque&lt;br /&gt;expression for reluctance motor MMF of concentrated and distributed windings, EMF equation, winding&lt;br /&gt;factors, torque and voltage in salient and non-salient pole machines, coupled circuit and magnetic field&lt;br /&gt;view point, rotating magnetic fields, torque production in synchronous, induction and DC machines.&lt;br /&gt;UNIT II: Synchronous Machines I&lt;br /&gt;Theory of non-salient pole synchronous machines, basic synchronous machine models, equivalent circuit&lt;br /&gt;and phasor diagrams of synchronous machines, saturation effects, armature reaction, open circuit, short&lt;br /&gt;circuit and zero power factor lag tests on synchronous machines, synchronous reactance, SCR, voltage&lt;br /&gt;regulation of alternators by synchronous impedance, MMF and zero power factor method, excitation&lt;br /&gt;systems of alternators&lt;br /&gt;UNIT III: Synchronous Machines II&lt;br /&gt;Generator input and output, steady state power angle characteristics, parallel operation of synchronous&lt;br /&gt;machines, load sharing, operation of synchronous machines with infinite bus bars, synchronizing torque,&lt;br /&gt;active and reactive power flows, general load diagram, V-curves.&lt;br /&gt;UNIT IV: Synchronous Machines III&lt;br /&gt;Theory of salient pole synchronous machines, two-reaction theory, phasor diagram, power angle&lt;br /&gt;characteristics, determination of Xd and Xq, stiffness of coupling synchronous motors, phasor diagrams,&lt;br /&gt;starting of synchronous machines, damper winding.&lt;br /&gt;UNIT V: Polyphase Induction Machines&lt;br /&gt;Cage and slip-ring induction motors, equivalent circuit, phasor diagram, normalized torque-speed (slip)&lt;br /&gt;relationship, starting and speed control of induction motors, cogging and crawling, double cage induction&lt;br /&gt;motors, testing of induction motors, circle diagram.&lt;br /&gt;Text Books:&lt;br /&gt;1. Electrical Machines by Smarajit Ghosh, Pearson Education&lt;br /&gt;2. Performance &amp;amp; Design of A.C. Machines by M.G. Say, C.B.S. Publishers&lt;br /&gt;Reference Books:&lt;br /&gt;1. Electric Machines by Nagrath &amp;amp; Kothari, TMH Pbs.&lt;br /&gt;2. Electric Machines by P.K. Mukherjee &amp;amp; S.Chakravarti, Dhanpat Rai&lt;br /&gt;3. Electrical machines by B. R, Gupta, New age international.&lt;/div&gt;</description></item><item><title>ELECTRICAL MEASUREMENTS AND MEASURING INSTRUMENTS LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-measurements-and-measuring_05.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:25:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-2224148473249442875</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments (minimum 10 experiments)&lt;br /&gt;1. To determine unknown resistance or value resistance by Kelvin Bridge Method.&lt;br /&gt;2. To determine unknown resistance R by Wheatstone Bridge Method.&lt;br /&gt;3. To determine unknown inductance of a given coil by Maxwell Bridge Method.&lt;br /&gt;4. To determine the inductance of the given coil by Anderson Bridge Method.&lt;br /&gt;5. To determine unknown capacitance of a given capacitor by Desauty Bridge Method.&lt;br /&gt;6. To determine capacitance of a given capacitor by Schering Bridge Method.&lt;br /&gt;7. To determine the inductance by Owen’s Bridge Method.&lt;br /&gt;8. To determine unknown inductance by Hay Bridge Method.&lt;br /&gt;9. To calibrate a given single phase induction type Energy Meter.&lt;br /&gt;10. To find the phase sequence of the supply by the rotating type phase sequence meter.&lt;br /&gt;11. To find the phase sequence of the supply by the Static type phase sequence meter.&lt;br /&gt;12. To determine the unknown resistance R by Voltmeter-Ammeter Method.&lt;br /&gt;13. To observe the B-H curve and hysteresis loop of agiven transformer core on CRO.&lt;br /&gt;14. Determine the iron losses by Lloyad fisher square method.&lt;br /&gt;15. Measurement of high resistance by using Meggar.&lt;br /&gt;Requirement:&lt;br /&gt;1. Bridges&lt;br /&gt;2. Oscillator.&lt;br /&gt;3. Head Phone&lt;br /&gt;4. Transformer, Variac&lt;br /&gt;5. Voltmeter, Ammeter, Multimeters, Resistors&lt;br /&gt;6. DC Supply&lt;br /&gt;7. Lloyad Fisher Square&lt;br /&gt;8. Meggar&lt;br /&gt;Reference Book:&lt;br /&gt;1. Electrical measurement &amp;amp; measuring instrument by A.K.Sawhney.&lt;br /&gt;2. Electrical measurement &amp;amp; measuring instrument by Gupta&lt;/div&gt;</description></item><item><title>ELECTRICAL POWER SYSTEM LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-power-system-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:24:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-8111982638116176009</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments (minimum 10 experiments)&lt;br /&gt;1. Study of types of cables.&lt;br /&gt;2. Study of types of Insulator used in power system&lt;br /&gt;3. Study of Bus –bar arrangement of a power supply sub – station.&lt;br /&gt;4. Study of Synchronous phase modifier and calculation of its rating.&lt;br /&gt;5. To measure the A, B, C, D constants of transmission lines.&lt;br /&gt;6. To measure the A, B, C, D constants of series transmission lines (HV-HV).&lt;br /&gt;7. To measure the A, B, C, D constants of series transmission lines (LV-LV).&lt;br /&gt;8. To measure the A, B, C, D constants of parallel transmission lines.&lt;br /&gt;9. To locate faults in a cable by Murray loop test.&lt;br /&gt;10. Measurement of capacitance between conductor –conductor and conductor –earth.&lt;br /&gt;11. Comparison of conductor Characteristics (Self GMD) between two different groups&lt;br /&gt;of conductors.&lt;br /&gt;12. To find out the rating of capacitor required for improving the power factor of an&lt;br /&gt;inductive load.&lt;br /&gt;13. Study of Electrical power supply system.&lt;br /&gt;14. Study of transmission structure used for different types of power supply system.&lt;br /&gt;15. Study the lay out diagram of college power supply system.&lt;br /&gt;Apparatus required: -&lt;br /&gt;1. Transformer&lt;br /&gt;2. Voltmeter&lt;br /&gt;3. Ammeter&lt;br /&gt;4. Multimeter, Wattmeter&lt;br /&gt;5. Insulators&lt;br /&gt;6. Synchronous motor&lt;br /&gt;7. Capacitor, resistors, inductor&lt;br /&gt;8. Power supply.&lt;br /&gt;Reference Books: -&lt;br /&gt;1. Power system analysis by C.L Wadhava, New Age&lt;br /&gt;2. Power system analysis by V.K Mehta, S. Chand.&lt;/div&gt;</description></item><item><title>DIGITAL ELECTRONICS AND LOGIC DESIGN LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/digital-electronics-and-logic-design_05.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:23:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-6817372544121696516</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments (minimum 10 experiments)&lt;br /&gt;1. To form basic logical OR gate having two or three inputs with two or three diodes.&lt;br /&gt;2. To form basic logical OR, AND, NOR &amp;amp; NAND gates using transistor.&lt;br /&gt;3. To verification of Boolean expansion.&lt;br /&gt;4. To design a 4-bit parity generator /detector circuits.&lt;br /&gt;5. To design a half adder circuit.&lt;br /&gt;6. To design a full adder circuit.&lt;br /&gt;7. To design a half sub tractor circuit.&lt;br /&gt;8. To design a full sub tractor circuit.&lt;br /&gt;9. To converters decimal to binary using 4-input NAND gates (Encoder)&lt;br /&gt;10. To demonstrate the operation and application of 16:1 digital multiplexer using IC’s.&lt;br /&gt;11. To Design a R-S flip flop.&lt;br /&gt;12. To Design a D- flip flop.&lt;br /&gt;13. To Design a J-K- flip flop.&lt;br /&gt;14. To design an up/down synchronous counter&lt;br /&gt;15. To study an 8-bit adder/sub tractor circuit.&lt;br /&gt;NOTE: At least two design experiments must be fabricated and tested.&lt;br /&gt;Apparatus Required:&lt;br /&gt;1. DC power Supply&lt;br /&gt;2. Toggle Switches&lt;br /&gt;3. LEDs&lt;br /&gt;4. Logic Gates&lt;br /&gt;5. Diodes&lt;br /&gt;6. Transistors&lt;br /&gt;7. Bread board, multimeters&lt;br /&gt;8. Clock&lt;br /&gt;Reference Books:&lt;br /&gt;1. Digital electronics- A.K. Maini&lt;br /&gt;2. Digital Principal – Roger Ltokheim&lt;br /&gt;3. Electronics Devices &amp;amp; circuit – Lnallen Motter shead.&lt;/div&gt;</description></item><item><title>ELECTRICAL NETWORK LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-network-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:22:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-830786585204485492</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments (minimum 10 experiments)&lt;br /&gt;1) To verify sinusoidal steady state response of RC and RL network with step&lt;br /&gt;voltage input.&lt;br /&gt;2) To verify sinusoidal steady state response of RLC network with step voltage input&lt;br /&gt;for under damped, critically damped and over damped cases.&lt;br /&gt;3) To verify transient response of RC and RL network with step voltage input.&lt;br /&gt;4) To verify transient response of RLC network with step voltage input.&lt;br /&gt;5) To Verify Thevenin’s Theorem in an A.C circuit.&lt;br /&gt;6) To verify Norton’s Theorem in an A.C circuit.&lt;br /&gt;7) To verify Superposition Theorem in an A.C circuit.&lt;br /&gt;8) Determination of Z and Y parameters (DC only) for a network.&lt;br /&gt;9) Determination of h parameters (DC only) for a network.&lt;br /&gt;10) Determination of image and characteristic impedance in T network using O.C test&lt;br /&gt;and S.C test.&lt;br /&gt;11) Determination of image and characteristic impedance in p network using O.C test&lt;br /&gt;and S.C test.&lt;br /&gt;12) Verification of parameter properties in inter-connected two port series networks.&lt;br /&gt;13) Verification of parameter properties in inter-connected two port parallel networks.&lt;br /&gt;14) Study of first order low pass and high pass Filters.&lt;br /&gt;15) Study of Butterworth Filter.&lt;br /&gt;Apparatus Required:&lt;br /&gt;1. Bread Boards,&lt;br /&gt;2. Resistors, Inductors, Capacitors,&lt;br /&gt;3. CRO,&lt;br /&gt;4. Function Generators, Multimeters,&lt;br /&gt;5. Trainers/ Kits for the different experiments.&lt;br /&gt;Reference Books:&lt;br /&gt;1) “Network Analysis”, Valkenburg, PHI Pbs.&lt;br /&gt;2) Network Analysis And Synthesis”, Kuo, JohnWiley Pbs.&lt;/div&gt;</description></item><item><title>ELECTRICAL MEASUREMENTS AND MEASURING INSTRUMENTS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-measurements-and-measuring.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:21:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-3108654820800044818</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Measurement Of Resistance&lt;br /&gt;Classification of resistances (low, medium and high), measurement of resistance by volt drop&lt;br /&gt;method, loss of charge method, Wheatstone’s bridge, Kelvin’s double bridge, Megger and&lt;br /&gt;ohmmeter, AC Potentiometers and their use for calibration of meters (ammeter, voltmeter&lt;br /&gt;and wattmeter).&lt;br /&gt;UNIT II: AC Bridges&lt;br /&gt;Measurement of inductance (self and mutual) and capacitance by AC bridges: Hay’s,&lt;br /&gt;Maxwell’s, Anderson and Heaviside bridge and its modification, Wein’s bridge for&lt;br /&gt;measurement of frequency, Wagner earthing device.&lt;br /&gt;UNIT III: Detectors And Magnetic Measurement&lt;br /&gt;Construction, theory and operation of D’Arsonval vibration galvanometer, flux meter, types&lt;br /&gt;of suspension method, measurement of BH flux by Lloyd Fisher Square and by CRO,&lt;br /&gt;determination of iron loss and permeability by AC potentiometer.&lt;br /&gt;UNIT IV: Measuring Instruments&lt;br /&gt;Classification, operation and working principle of PMMC, MI and dynamometer type&lt;br /&gt;instruments, controlling, damping and balancing devices, single-phase and three-phase&lt;br /&gt;electrodynamometer power factor meter, frequency meters: electrical resonance type,&lt;br /&gt;electrodynamometer, ratio-meter type. Phase sequence meter, maximum demand indicator,&lt;br /&gt;tri-vector detector meter.&lt;br /&gt;UNIT V: Power And Energy Measurement&lt;br /&gt;Construction and principle of operation of dynamometer and induction type wattmeter,&lt;br /&gt;measurement of power in a three-phase circuit by using single-phase wattmeter, wattmeter&lt;br /&gt;errors, low power factor wattmeter, testing of wattmeter, single and poly-phase energy&lt;br /&gt;meters, testing of energy meters.&lt;br /&gt;Text Books:&lt;br /&gt;1. “A Course In Electrical And Electronics Measurement And Instrumentation”,&lt;br /&gt;Sawhney, Dhanpat Rai Pbs.&lt;br /&gt;2. “Electrical Measurement And Measuring Instruments”, Golding, CBS&lt;br /&gt;Reference books:&lt;br /&gt;1. “A Course In Electrical And Electronics Measurement And Instrumentation”, J. B.&lt;br /&gt;Gupta. Kataria Pbs.&lt;br /&gt;2. “Electric Measurements”, Harris.&lt;/div&gt;</description></item><item><title>ELECTRICAL POWER SYSTEM SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-power-system-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:20:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-5118092352086945415</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I:&lt;br /&gt;Over head lines: solid conductors, stranded conductors, bundled conductors, skin effect,&lt;br /&gt;proximity effects, inductance and capacitance of single-phase, three-phase single circuit and&lt;br /&gt;double circuit lines, concept of GMD, transposition of lines, effect of earth on capacitance of&lt;br /&gt;transmission lines.&lt;br /&gt;UNIT II:&lt;br /&gt;Transmission Lines: representation of transmission line, single line diagram, per unit&lt;br /&gt;quantity, Characteristics and performance of transmission lines, transmission lines as four&lt;br /&gt;terminal networks, nominal-T, nominal-p, equivalent-T, and equivalent-p representation of&lt;br /&gt;transmission lines, A, B, C, D constants, distributed parameters of long lines, hyperbolic&lt;br /&gt;solutions, Ferrantii effect, surge impedance loadings, power flow equations.&lt;br /&gt;UNIT III: GENERATOR VOLTAGE&lt;br /&gt;Generator voltage control, line drop compensation by static capacitors and reactors, induction&lt;br /&gt;voltage regulators, control of voltage profile, control of active and reactive power,&lt;br /&gt;calculation of synchronous phase modifier capacity, on-load tap changing transformer,&lt;br /&gt;control cost in AC and DC system, basis of selection for line voltage, AC and DC&lt;br /&gt;distribution systems, voltage drop calculation.&lt;br /&gt;UNIT IV: CABLES&lt;br /&gt;Types of cables, insulation resistance of cables, capacitance of cables, dielectric stress,&lt;br /&gt;capacitance grading of cables, use of inter-sheaths, power factor of cables, sag and tension&lt;br /&gt;calculation.&lt;br /&gt;UNIT V: TRAVELING WAVES&lt;br /&gt;Transients in power systems, wave equation, characteristic impedance, energy and power&lt;br /&gt;surge, velocity, traveling wave phenomenon in open circuited and short circuited lines, lines&lt;br /&gt;with series reactive termination, junction of two dissimilar lines, repeated reflections,&lt;br /&gt;Bewley’s Lattice diagram.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Elements of Power Systems”, Stevenson, 4th Edition&lt;br /&gt;2. “Power System Engineering”, Nagrath Kothari, TMH Pbs.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “A Course In Electrical Power”, Soni, Gupta and Bhatnagar, Dhanpat Rai.&lt;br /&gt;2. Electrical power systems, Ashfaq Hussain, CBS Pbs.&lt;br /&gt;3. Electrical power systems, C. L. Wadhwa, New Age Pbs.&lt;br /&gt;4. "Substation Design and Control" by Gupta &amp;amp; Satnam&lt;/div&gt;</description></item><item><title>DIGITAL ELECTRONICS AND LOGIC DESIGN SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/digital-electronics-and-logic-design.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:19:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-5475689381437500091</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Number System and Codes&lt;br /&gt;Number systems: Decimal, binary, hexadecimal, Octal number systems with mutual conversion,&lt;br /&gt;Binary arithmetic in computers BCD Addition, Subtraction&lt;br /&gt;Binary code: Weighted and non-weighted codes, Error detecting and Correcting codes, ASCII Codes,&lt;br /&gt;Hamming Code, Alphanumeric Codes&lt;br /&gt;UNIT II: Boolean algebra &amp;amp;Logic Gates&lt;br /&gt;Development of Boolean algebra, Boolean logic operations, AND, OR, NOT, Universal building&lt;br /&gt;blocks, Basic laws of Boolean algebra, Demorgan’s Theorem, Minterms &amp;amp; Maxterms, Deriving SOP&lt;br /&gt;&amp;amp; POS Expression from Canonical &amp;amp; standard form, Truth table, Karnaugh map (up to five&lt;br /&gt;variables), Minimization of logic function in SOP, POS and mixed term, Incompletely Specified&lt;br /&gt;functions, Multiple output, Minimization using Quine McClusky or Tabulation method.&lt;br /&gt;Logic Gates: Positive and Negative Logic, Designation, OR, AND, NOT, NAND, NOR, XOR,&lt;br /&gt;XNOR, gates, Multilevel Gating Networks, NAND and NOR implementation, XOR and Equivalence&lt;br /&gt;function.&lt;br /&gt;UNIT III: Combinational Circuits And Systems&lt;br /&gt;Design procedure: Adder, Subtractor, Binary parallel adder, Serial adders, Decimal adders, and Fast&lt;br /&gt;adders, Multiplexers, Demultiplexers, Decoders, Encoders, Priority encoders, Parity generator/&lt;br /&gt;checkers, Magnitude comparators, Code converters, Programmable logic array (PLA), ROM,&lt;br /&gt;Application of Multiplexers, Decoders and Comparators.&lt;br /&gt;UNIT IV: Flip flop and its applications&lt;br /&gt;Flip flop: Types, SR, JK, D and T type flip-flop, Triggering of Flip flops, Master Slave flip flop,&lt;br /&gt;Realization of one flip flop using other flip flops,&lt;br /&gt;Registers and counters: Shift register, Bi-directional register, Asynchronous counter, Binary ripple&lt;br /&gt;counters, Asynchronous up-down counters, Synchronous up-down counter, Design of modulo-N&lt;br /&gt;synchronous counter, Ring counters, Sequence generator using counter.&lt;br /&gt;UNIT V: Memory devices&amp;amp; Sequential machines&lt;br /&gt;Classification of memories, semiconductor ROM and RAM, Organization of RAM,&lt;br /&gt;Memory subsystem, Timing circuit, clock circuit and IC timer.&lt;br /&gt;Design of synchronous sequential machines: Basic concepts, synchronous sequential machine&lt;br /&gt;models, design of synchronous sequential circuit, sequence detectors, odd/even parity generator,&lt;br /&gt;Basic concept, asynchronous sequential circuits, Design of fundamental mode of asynchronous&lt;br /&gt;sequential circuit by Flip flops&lt;br /&gt;Text Books: 1. “Digital logic and concept design”, Morris Mano, PHI Pbs.&lt;br /&gt;2. “Study, theory and logic design” Jain, TMH&lt;br /&gt;Reference Books:&lt;br /&gt;1. “An Introduction To Digital Computer Design”, V, Rajaraman and Radhakrishnan, 3rd&lt;br /&gt;Edition, PHI Pbs.&lt;br /&gt;2. “Digital Principles And Application” Malvino &amp;amp; Leach, 4th Edition, McGraw Pbs.&lt;br /&gt;3. “Digital circuit and design”, Taub and Schelling, TMH.&lt;br /&gt;4. Digital circuit and design, Salivahan and Aricozhagan, Vikas Pbs.&lt;/div&gt;</description></item><item><title>ELECTRICAL NETWORK ANALYSIS AND SYNTHESIS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-network-analysis-and.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:19:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-7153503944793307985</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Networks and Laplace Transform - I&lt;br /&gt;Network equation, formulation of network equations, initial conditions in networks and&lt;br /&gt;network solution with Laplace transformation, step, ramp and impulse functions, initial and&lt;br /&gt;final value theorem and convolution integral.&lt;br /&gt;UNIT II: Networks and Laplace Transform - II&lt;br /&gt;Transform impedance and transform circuits, Thevenin’s and Norton’s theorem, duality,&lt;br /&gt;Fourier transform, discrete and continuous spectrum, relation and Laplace transforms.&lt;br /&gt;UNIT III: Network Functions&lt;br /&gt;Network function for one-port and two-port, calculation of network function for ladder and&lt;br /&gt;general networks, poles and zeros with restrictions for driving point functions and transform&lt;br /&gt;functions, two-port parameters, stability by Routh-Harwitz criterion.&lt;br /&gt;UNIT IV: Network Synthesis&lt;br /&gt;Identification of network synthesis, Brune’s positive and real function (PRF), properties of&lt;br /&gt;PRF, testing of driving point functions, even and odd function, one terminal pair network&lt;br /&gt;driving point synthesis with LC elements, RC elements, Foster and Cauer form.&lt;br /&gt;UNIT V: Filters&lt;br /&gt;Low pass filters, high pass filters, band pass filters, band reject filters, Gain equalizer and&lt;br /&gt;delay equalizers, Butterworth filters, m-derived filters, constant k-filters, design of filters.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Network Analysis”, Valkenburg, PHI Pbs.&lt;br /&gt;2. Circuit theory, Kurikose-PHI Pbs.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Introduction To Network Synthesis”, Valkenburg, PHI Pbs.&lt;br /&gt;2. “Network Analysis And Synthesis”, Wadhwa, New Age Pbs.&lt;/div&gt;</description></item><item><title>ELECTROMAGNETIC FIELDS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electromagnetic-fields-syllabus.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:18:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-7951149188126139014</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Basics of Electromagnetic Fields&lt;br /&gt;Scalars and vectors, vector algebra, the Cartesian, circular cylindrical and spherical&lt;br /&gt;coordinate systems, transformations between coordinate systems, Coulomb’s law, electric&lt;br /&gt;field intensity, electric field due to several charges, Gauss law and its application, divergence&lt;br /&gt;and divergence theorem, Maxwell’s first equation, the vector operator Ñ and divergence&lt;br /&gt;theorem.&lt;br /&gt;UNIT II: Electrostatics&lt;br /&gt;Electric potential, potential at any point due to discrete and distributed charges, principle of&lt;br /&gt;superposition potential and field between two coaxial cylinders, potential between two&lt;br /&gt;conducting spherical shells, conservative property, potential gradient, electric dipole, current&lt;br /&gt;and current density, continuity of current, metallic conductors, conductor properties and&lt;br /&gt;boundary conditions for dielectric materials, boundary conditions for perfect dielectric&lt;br /&gt;materials, capacitance Poisson and Laplace equation, uniqueness theorem, examples of the&lt;br /&gt;solution of Laplace and Poisson’s equations.&lt;br /&gt;UNIT III: Magnetostatics&lt;br /&gt;The steady state magnetic field, Biot Savart Law, Ampere’s circuital Law, Curl, Stokes&lt;br /&gt;theorem, magnetic flux and magnetic flux density, scalar and vector magnetic potentials.&lt;br /&gt;UNIT IV: Magnetic Force And Inductance&lt;br /&gt;Force on a moving charge, force on a differential current element, force between differential&lt;br /&gt;current elements, force and torque on a closed circuit, magnetic materials, magnetization and&lt;br /&gt;permeability, magnetic boundary conditions.&lt;br /&gt;UNIT V: Time Varying Field And Maxwell’s Equations&lt;br /&gt;Modification of Maxwell’s equations under time varying conditions, displacement current,&lt;br /&gt;source free wave equation, power flow and energy, sinusoidal time varying field, Helmholtz&lt;br /&gt;equation, complex pointing vector, Boundary condition, relation between field theory and&lt;br /&gt;current theory.&lt;br /&gt;Text Books:&lt;br /&gt;1. “Engineering Electromagnetics”, Hayt,TMH Pbs.&lt;br /&gt;2. “Electromagnetic Field theory and transmission lines”, Raju, Pearson.&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Principle And Application Of Electromagnetic Fields”, Robert Polnsey and Robert&lt;br /&gt;Collin.&lt;br /&gt;2. “Fields and wave electromagnetics”, Chang.&lt;br /&gt;3. Electromagnetic field, Bhat, CBS Pbs.&lt;/div&gt;</description></item><item><title>ELECTRICAL ENGINEERING MATERIALS SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-engineering-materials.html</link><category>csvtu syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:17:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-1806926129247562735</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
UNIT I: Conductors&lt;br /&gt;Classification: High conductivity, high resistivity materials, fundamental requirements of&lt;br /&gt;high conductivity materials and high resistivity materials, mobility of electron in metals,&lt;br /&gt;commonly used high conducting materials, copper, aluminum, bronze brass, properties,&lt;br /&gt;characteristics, constantan, platinum, nichrome, properties, characteristics and applications,&lt;br /&gt;materials used for contacts.&lt;br /&gt;UNIT II: Semi-Conductors&lt;br /&gt;General concepts, energy bands, types of semiconductors, Fermi Dirac distribution, intrinsic&lt;br /&gt;Semi-conductors, extrinsic Semi-conductors, hall effect, drift, mobility, diffusion in Semiconductors,&lt;br /&gt;Semi-conductors and their applications, superconductors.&lt;br /&gt;UNIT III: Dielectrics And Insulators&lt;br /&gt;Properties of gaseous, liquid and solid dielectric, dielectric as a field medium, electric&lt;br /&gt;conduction in gaseous, liquid and solid dielectric, breakdown in dielectric materials,&lt;br /&gt;mechanical and electrical properties of dielectric materials, effect of temperature on dielectric&lt;br /&gt;materials, polarization, loss angle and dielectric loss, petroleum based insulating oils,&lt;br /&gt;transformer oil, capacitor oils, properties, solid electrical insulating materials, fibrous, paper&lt;br /&gt;boards, yarns, cloth tapes, sleeving wood, impregnation, plastics, filling and bounding&lt;br /&gt;materials, fibrous, film, mica, rubber, mica based materials, ceramic materials, classification&lt;br /&gt;of insulation ( solid) and application in AC and DC machines.&lt;br /&gt;UNIT IV: Magnetic Materials&lt;br /&gt;Soft and hard magnetic materials, diamagnetic, paramagnetic and ferromagnetic materials,&lt;br /&gt;electric steel, sheet steel, cold rolled grain oriented silicon steel, hot rolled grain oriented&lt;br /&gt;silicon steel, hot rolled silicon steel sheet, hystersis loop, hystersis loss, magnetic&lt;br /&gt;susceptibility, coercive force, curie temperature, magneto-striction.&lt;br /&gt;UNIT V: Optical Properties of Solids&lt;br /&gt;Photo emission, photo emission materials, electro luminescence junction diode, photo&lt;br /&gt;emitters, photo transistor, photo resistors, injunction lasers, optical properties of&lt;br /&gt;semiconductors, application of photo sensitive materials (CRT, Tube light, photo panels etc.).&lt;br /&gt;Text Books:&lt;br /&gt;1. “Electrical Engineering Materials”,Dekker,PHI Pbs.&lt;br /&gt;2. “Electrical Engineering Materials”, Indulkar,S.Chand&lt;br /&gt;Reference Books:&lt;br /&gt;1. “Electrical Engineering Materials”, Tareev&lt;br /&gt;2. “Electrical Engineering Materials”, Yu. Koritsky.&lt;br /&gt;3. “Electrical Engineering Materials”, R.K.Rajput, Laxmi Pbs.&lt;/div&gt;</description></item><item><title>COMPUTER PROGRAMMING LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/computer-programming-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:15:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-5539584300397246445</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments (minimum 10 experiments)&lt;br /&gt;1. Write a programme to perform addition, Subtraction, division, of two integers &amp;amp;&lt;br /&gt;two floating point no.&lt;br /&gt;2. Write a programme to calculate the area of a circle, triangle, square, rectangle&lt;br /&gt;[the various sides are given].&lt;br /&gt;3. Write a Programme to read name &amp;amp; age of student &amp;amp; display it on a screen.&lt;br /&gt;4. Write a Programme to find the average of three marks of students &amp;amp; calculate the&lt;br /&gt;percentage.&lt;br /&gt;5. Write a Programme to generate Fibonacci series and to generate prime no. From&lt;br /&gt;0-1000.&lt;br /&gt;6. Write a Programme to find the roots of a quadratic equation.&lt;br /&gt;7. Write a Programme to reverse a no. of a string.&lt;br /&gt;8. Write a Programme to find if the no. or string is a palindrome.&lt;br /&gt;9. Write a Programme to find factorial value of a given no.&lt;br /&gt;10. Write a Programme to find the sum of the first seven of the series.&lt;br /&gt;11. Write a Programme to swap two no.&lt;br /&gt;12. Write a Programme to sort the element of an array.&lt;br /&gt;13. Write a Programme to convert lower case string to upper case &amp;amp; vice-verse.&lt;br /&gt;14. Write a Programme to open &amp;amp; close a file to store students information like&lt;br /&gt;name, age etc.&lt;br /&gt;15. Write a Programme to find the value of definite integral using trapezoidal rule,&lt;br /&gt;the inverse of 3 x 3 matrix.&lt;br /&gt;&lt;br /&gt;
Reference Books:&lt;br /&gt;1. Programming in C++ by Balaguruswami, TMH.&lt;br /&gt;2. Let us C, Kanetkar.&lt;/div&gt;</description></item><item><title>ELECTRICAL CIRCUITS LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-circuits-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:15:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-8757744028787548215</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of Experiments(minimum 10 experiments)&lt;br /&gt;1. To verify Reciprocity theorem.&lt;br /&gt;2. To verify Superposition theorem.&lt;br /&gt;3. To verify Thevenin’s theorem.&lt;br /&gt;4. To verify Norton’s theorem.&lt;br /&gt;5. To verify Max. Power transfer theorem.&lt;br /&gt;6. To study the charging and discharging of a capacitor through resistor.&lt;br /&gt;7. To measure the voltage current, and resistance with the help of electronic&lt;br /&gt;multimeter.&lt;br /&gt;8. To plot voltage vs resistance characteristics of Incandescent lamp.&lt;br /&gt;9. To connect a tube light and study its min. operating voltage, current, power and&lt;br /&gt;power factor.&lt;br /&gt;10. To verify the voltage and current relation in star and delta connected system.&lt;br /&gt;11. To measure three phase power using Two-watt meter method.&lt;br /&gt;12. To verify the effect of resistance and condenser connected in series in an a.c.&lt;br /&gt;circuit.&lt;br /&gt;13. To verify the effect of resistance and condenser connected in parallel in an a.c.&lt;br /&gt;circuit.&lt;br /&gt;14. To verify Kirchhoff’s law. (a) Kirchhoff’s current law.(b) Kirchhoff’s voltage&lt;br /&gt;law.&lt;br /&gt;15. To verify effect of unbalanced load in star connection.&lt;br /&gt;&lt;br /&gt;
List of apparatus required:&lt;br /&gt;1. Voltmeter, ammeter, Wattmeter&lt;br /&gt;2. Power factor meter&lt;br /&gt;3. Resistors&lt;br /&gt;4. Capacitors&lt;br /&gt;5. Lamp load&lt;br /&gt;6. DC supply&lt;br /&gt;7. Three-phase autotransformer&lt;br /&gt;8. Multimeter&lt;br /&gt;&lt;br /&gt;
Reference books:&lt;br /&gt;1. Experiments in basic electrical engineering, S.K.Bhattacharya.&lt;br /&gt;2. Basic shop practical, Mehta &amp;amp; Gupta&lt;br /&gt;3. Practical in electrical engineering, Dr. N.K.Jain&lt;/div&gt;</description></item><item><title>SOLID STATE DEVICES LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/solid-state-devices-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:14:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-3282260657184979267</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments to be performed(minimum 10 experiments)&lt;br /&gt;1. To determine Zener Diode Characteristic &amp;amp; Zener as a Voltage Regulator.&lt;br /&gt;2. To design and study a Half Wave Rectifier Circuit&lt;br /&gt;3. To design and study a Full Wave Center Tapped Rectifier Circuit.&lt;br /&gt;4. To design and study a Full Wave Bridge Rectifier Circuit&lt;br /&gt;5. To design and study Different Filter Circuits.&lt;br /&gt;6. To design and study Different Clipping Circuits.&lt;br /&gt;7. To design and study Different Clamper Circuits.&lt;br /&gt;8. To design and study Collector To Base Feedback Circuits.&lt;br /&gt;9. To design and study A Wein Bridge Oscillator Circuits.&lt;br /&gt;10. To design and study transistorized phase shift oscillator.T&lt;br /&gt;11. To design and study the characteristics of p-n junction diode &amp;amp; calculate cutting&lt;br /&gt;voltage, reverse saturation voltage, reverse saturation current &amp;amp; dynamic &amp;amp; static&lt;br /&gt;resistance from it.&lt;br /&gt;12. To plot drain current – voltage &amp;amp; drain current – gate bias characteristics of FET&lt;br /&gt;&amp;amp; measurement of Idss &amp;amp; Vp .&lt;br /&gt;13. To study the MOSFET characteristics.&lt;br /&gt;14. To plot input &amp;amp; output characteristics of BJT in CC, CB, CE configuration.&lt;br /&gt;15. To characterize the PN Junction Diode.&lt;br /&gt;&lt;br /&gt;
Apparatus Required:&lt;br /&gt;1. Diodes, Capacitors, Resistors&lt;br /&gt;2. Dual power supply&lt;br /&gt;3. Operational amplifiers&lt;br /&gt;4. Bread Board&lt;br /&gt;5. AC power supply&lt;br /&gt;6. CRO&lt;br /&gt;7. Battery&lt;br /&gt;8. Ammeter&lt;br /&gt;9. Function Generator&lt;br /&gt;&lt;br /&gt;
Reference Books:&lt;br /&gt;1. Basic Electronics -A text Lab manual by Zbar, Malvino, Miller&lt;br /&gt;2. Basic Electronics &amp;amp; Linear Circuits – NN Bhargava, DC Kulsherstha, S.C. Gupta,&lt;br /&gt;TTTI chandigarh&lt;/div&gt;</description></item><item><title>ELECTRICAL MACHINE - I LAB SYLLABUS</title><link>http://waytoengg.blogspot.com/2011/03/electrical-machine-i-lab-syllabus.html</link><category>csvtu lab syllabus</category><author>noreply@blogger.com (ELECTRICAL ENGG. - LAKHAN KUMAR PATNAIK)</author><pubDate>Sat, 5 Mar 2011 07:13:00 -0800</pubDate><guid isPermaLink="false">tag:blogger.com,1999:blog-7062191460501170449.post-8990070386889119841</guid><description>&lt;div dir="ltr" style="text-align: left;" trbidi="on"&gt;
List of experiments to be performed(minimum 10 experiments)&lt;br /&gt;1. Determination of efficiency and voltage regulation of a Single Phase Transformer.&lt;br /&gt;2. Parallel Operation of two Single Phase Transformer.&lt;br /&gt;3. Study of three phase transformer connections.&lt;br /&gt;4. Open &amp;amp; short ckt. Test of 3-phase transformer.&lt;br /&gt;5. Back to back test on two single-phase transformers.&lt;br /&gt;6. Measurement of armature and field winding resistance of D. C. Machine.&lt;br /&gt;7. To study the reversal of D. C. Shunt Motor.&lt;br /&gt;8. To perform Load Test on D. C. Shunt Generator.&lt;br /&gt;9. To perform Swinburne’s Test on a D. C. Machine and find out efficiency at full&lt;br /&gt;load.&lt;br /&gt;10. Speed control of a D. C. Shunt Motor by (a) Varying field current with armature&lt;br /&gt;voltage kept constant. (b) Varying armature voltage with field current kept&lt;br /&gt;constant.&lt;br /&gt;11. To find Magnetization or Open Circuit Characteristics of a D. C. Machine.&lt;br /&gt;12. Polarity Test on transformer.&lt;br /&gt;13. To find ratio of series to shunt field turns of DC machine.&lt;br /&gt;14. Electrical breaking of DC motor.&lt;br /&gt;15. 3-phase to 2-phase conversion by Scott connection.&lt;br /&gt;&lt;br /&gt;
Apparatus Required: -&lt;br /&gt;1. Single phase Transformer&lt;br /&gt;2. Auto Transformer&lt;br /&gt;3. Resistive Load&lt;br /&gt;4. Ammeters, Voltmeters, Wattmeter&lt;br /&gt;5. DPMCB, Tachometer,&lt;br /&gt;6. Starter&lt;br /&gt;7. DC shunt motor, DC generator&lt;br /&gt;8. DC source&lt;br /&gt;9. Field regulator, Rheostat&lt;br /&gt;&lt;br /&gt;
Reference book:&lt;br /&gt;1. Electrical Machines, Bimbhra, Khanna Pbs.&lt;/div&gt;</description></item></channel></rss>