DBSCR Govt. Polytechnic Education

Society, Sampla

ECE 3rd sem Lesson Plan

Name of Faculty : Jatin Kochar

Discipline : Electronics & Comm. Engg.

Semester : 3rd

Subject : ELECTRONIC INSTRUMENTS AND MEASUREMENT

Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture Topic (Including Assignment/ Test)

Practical Topic

Day Day

1

Measurement, method of measurement, types

of instruments

Measurement of

1st 2 Specifications of instruments Accuracy,

1st voltage, resistance,

precision

frequency using

3

Specifications of instruments sensitivity, digital multimeter

resolution, range, errors in measurement

4 sources of errors, limiting errors, Measurement of

2nd 5 loading effect, importance and applications of

2nd voltage, resistance,

standards and calibration

frequency using

6 Assignment / test digital multimeter

7 Principles of measurement of DC voltage Measurement of

3rd 8 Principles of measurement of DC current

3rd voltage, frequency,

9 Principles of measurement of AC voltage time period and

phase using CRO

10 Principles of measurement of AC current Measurement of

Principles of operation and construction of

voltage, frequency,

4th 11 permanent magnet moving coil (PMMC) 4th

time period and

instruments

phase using CRO

12 Moving iron type instruments

13 Assignment Practical file

14 Revision / test

5th

5th Checking and viva-

Construction and working of Cathode Ray

15

voice

Tube(CRT)

16

Block diagram description of a basic CRO and Measurement of

triggered sweep oscilloscope

voltage, frequency,

6th

6th

17 Front panel controls

time and phase using

18 Specifications of CRO and their explanation DSO

19 Measurement of current, voltage, frequency Measurement of

Measurement of current time period and phase

20

voltage, frequency,

7th using CRO

7th

time and phase using

Digital storage oscilloscope (DSO) block

21

DSO

diagram and working principle

22 Assignment / Problem Taking Measurement of Q of

8th 23 Class test

8th

a coil

24 Wheat stone bridge

25 AC bridges: Maxwell’s induction bridge Measurement of Q of

9th 26 Hay’s bridge, De-Sauty’s bridge,

9th

a coil

27 Schering bridge and Anderson bridge

10th 28 Bock diagram description of laboratory type

10th

RLC bridge, specifications of RLC bridge

29

Block diagram and working principle of Q Practical file

meter

Checking and viva-

30 Assignment voice

31 Problem Taking Measurement of

11th 32 Class test

11th resistance and

33 Explanation of block diagram specifications of inductance of coil

low frequency, RF generators

using RLC Bridge

34 pulse generator, function generator Measurement of

12th 35 Distortion factor meter

12th impedance using

36 Instrumentation amplifier: its characteristics, Maxwell Induction

need and working

Bridge

37 Instrumentation amplifier need and working To find the value of

13th 38 Assignment

13th unknown resistance

39 Comparison of analog and digital instruments using Wheat Stone

Bridge

40 Working principle of ramp, dual slope Measurement of

Working principle of integration type digital

41

distortion using

14th voltmeter 14th

Distortion Factor

Block diagram and working of a digital multi-

42

Meter

meter

43

Specifications of digital multi-meter and their

applications

Use of logic pulser

15th 44 Limitations of digital multi-meters 15th

and logic pobe

45 Working principle of logic probe, logic pulser

analyzer

46

Working principle of logic analyzer and

signature analyzer

16th

16th Revision

47 Revision

48 Revision

Lesson Plan

Name of Faculty : Prem Prakash

Discipline : Electronics & Comm. Eng.

Semester : 3rd

Subject : PRINCIPLES OF COMMUNICATION ENGINEERING Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Lecture Topic (Including Assignment/ Test

Practical Topic

Day Day

week 1

Introduction of Subject and Need for

modulation

1st 2

frequency translation and demodulation in 1st

General idea’s for lab

communication systems Equipment’s

3

Basic scheme of a modern communication

system

Derivation of expression for an amplitude To observe an AM

4 modulated wave Carrier and side band wave on CRO

components produced by a

Modulation index. Spectrum and BW of AM standard signal

5 Wave. Relative power distribution in carrier generator using

2nd and side bands

2nd internal and external

modulation

To measure the

6

Elementary idea of DSB-SC modulations and modulation index of

its application

the wave obtained in

above practical

7

Elementary idea of SSB-SC modulations and its To observe an AM

application

wave on CRO

8

Elementary idea of ISB and VSB modulations produced by a

and its application

standard signal

generator using

3rd

3rd internal and external

modulation

9

Comparison of DSB- SC ,SSB- SC, ISB, and VSB To measure the

modulation

modulation index of

the wave obtained in

above practical

Expression for frequency modulated wave and To obtain an AM wave

10 its frequency spectrum (without Proof and from a square law

analysis of Bassel function) modulator circuit and

Modulation index, maximum frequency observe

4th 11 deviation and deviation ratio, BW of FM 4th waveforms

signals, Carson’s rule b) To measure

the modulation index

12 Effect of noise on FM carrier. Noise triangle of the obtained wave

form

5th 13 Role of limiter, Need for pre-emphasis and de-

5th To obtain an AM wave

emphasis, capture effect. from a square law

14

Comparison of FM and AM in communication modulator circuit and

systems

observe waveforms

To measure the

15 Assignment / Revision

modulation index of

the obtained wave

form

16 Test To obtain an FM wave

17

Derivation of expression for phase modulated and measure the

wave modulation index

frequency deviation

6th 6th for different

18

Derivation of expression for phase modulated modulating signals.

wave modulation index

19 Comparison with frequency modulation. To obtain an FM wave

20 Assignment /Quiz and measure the

frequency deviation

7th Circuit Diagram and working operation of

7th for different

21

modulating signals.

Collector Modulator

22

Circuit Diagram and working operation of

Base Modulator

To obtain

Circuit Diagram and working operation of

8th 23 8th modulating signal

Square Low Modulator

from FM detector

24 Circuit Diagram and working operation of

Balanced Modulator

25 Revision

26

Working principles and applications of

9th reactance modulator 9th Revision

27

Working principles and applications of

varactor diode modulator

28

Working principles and applications of VCO To observe the

modulator

sampled signal and

29

Working principles and applications of compare it with the

Armstrong phase modulator

analog input signal.

10th 10th Note the effect of

Stabilization of carrier using AFC (Block

varying the sampling

30

pulse width and

diagram approach)

frequency on the

sampled output

31 Assignment / Test To observe and note

32

Principles of demodulation of AM wave using the pulse amplitude

diode detector circuit

modulated signal

11th

11th (PAM) and compare

them with the

33 concept of Clipping corresponding

analog input signal

12th 34 formula for RC time constant for minimum

12th Revision

distortion (no derivation)

35 Assignment

36 Expert Lecture

37

Basic principles of FM detection using slope To observe PPM and

detector

PWM ignal and

Principle of working of the Foster-Seeley

compre it with the

13th 38 discriminator FM demodulator (No 13th

analo input signal

Derivation)

39

Principle of working of the Ratio detector FM

demodulator (No Derivation)

40

Block diagram of Phase locked Loop (PLL) FM

demodulator (No Derivation)

14th 41 Revision / Assignment

14th Revision

Statement of sampling theorem and

42 elementary idea of sampling frequency for

pulse modulation

43

Basic concepts of time division multiplexing

(TDM)

15th

15th Revision/ viva

44 frequency division multiplexing (FDM)

45 Pulse Amplitude Modulation (PAM)

46 Pulse Position Modulation (PPM)

16th 47 Pulse Width Modulation (PWM) 16th Revision/ viva

48 Revision

Lesson Plan

Name of Faculty : Ms. Tarni

Discipline : ECE

Semester : 3rd

Subject : Digital Electronics Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture

Topic (Including Assignment/ Test Practical

Topic

Day Day

1 Introduction Verification and

2 Distinction between analog and digital signal. interpretation of truth

tables for AND, OR,

1st 1st NOT NAND, NOR and

3 Applications and advantages of digital signals Exclusive OR (EXOR)

and Exclusive NOR

(EXNOR) gates

4 Assignment Verification and

5 Binary interpretation of truth

tables for AND, OR,

2nd 2nd NOT NAND, NOR and

6 octal and hexadecimal number system Exclusive OR (EXOR)

and Exclusive NOR

(EXNOR) gates

7

conversion from decimal and hexadecimal to

binary and vice-versa

Binary addition and subtraction including Realisation of logic

3rd 8

binary points. 1’s and 2’s complement 3rd functions with the help

method of addition/subtraction.

of NAND or NOR gates

9 Assignment

10

Concept of code, weighted and non-weighte

codes

To design a half adder

examples of 8421, BCD, excess-3 and Gray

11

using XOR and NAND

4th code

4th

gates and verification

Concept of parity, single and double parity

of its operation

12 and error detection

13 Assignment Construction of a full

14 Concept of negative and positive logic adder circuit using

5th 5th XOR and NAND gates

Definition, symbols and truth tables of NOT,

15

and verify

AND, OR, NAND, NOR, EXOR Gates

its operation

16 NAND and NOR as universal gates Revision of

6th 17 Introduction to TTL and CMOS logic families 6th

Experiments

18 Assignment

19 Logic Simplification Revision of

7th

Postulates of Boolean algebra, De Morgan’s 7th

20 Experiments

Theorems

21

Implementation of Boolean (logic) equation

with gates

22 Assignment Verification of truth

23 Half adder and Full adder circuit table for positive edge

triggered, negative

8th

8th edge triggered, level

triggered IC flip-flops

24 design and implementation

(At least one IC each of

D latch, D flip-flop, JK

flip-flops).

25

Decoders, Multiplexers, Multiplexers and Verification of truth

Encoder

table for positive edge

26

Four bit decoder circuits for 7 segment triggered, negative

9th display and decoder/driver ICs

9th edge triggered, level

triggered IC flip-flops

27

Basic functions and block diagram of MUX and (At least one IC each of

DEMUX with different ICs

D latch, D flip-flop, JK

flip-flops).

28 Basic functions and block diagram of Encoder

10th 29 Assignment

10th Revision of

30 Concept and types of latch with their working Experiments

and applications

31

Operation using waveforms and truth tables Verification of truth

of RS, T, D, Master/Slave JK flip flops

table for encoder and

11th 32 Difference between a latch and a flip flop

11th

decoder ICs, Mux and

Introduction to Asynchronous and

33

DeMux

Synchronous counters

34 Binary counters To design a 4 bit SISO,

35 Divide by N ripple counters SIPO, PISO, PIPO shift

12th

12th registers using JK/D

flip flops and

36 Decade counter

verification of their

operation

37 Ring counter

13th 38 Assignment

13th Revision of

39 Introduction and basic concepts including Experiments

shift left and shift right

serial in serial out, parallel in serial out

40 parallel in parallel out parallel in parallel out To design a 4 bit ring

Universal shift register

14th

14th counter and verify its

41 Working principle of A/D and D/A converters

operation.

42 Stair step Ramp A/D converter, Dual Slope

A/D converter

43 Successive Approximation A/D Converter Use of Asynchronous

44 Binary Weighted D/A converter

15th

15th Counter ICs (7490 or

R/2R ladder D/A converter, Applications of

45

7493)

A/D and D/A converter

Memory organization, classification of Revision of

16th 46 semiconductor memories (RAM, ROM, PROM, 16th

Experiments

EPROM, and EEPROM)

47 static and dynamic RAM 48 introduction to 74181 ALU IC

LESSON PLAN

Name of Faculty : Manish Aggarwal

Discipline : Electronics & Communication Engg.

Semester : 3rd

Subject : Electronic Devices & Circuits

Lesson Plan Duration : 16 weeks Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture Topic (Including Assignment/ Test Practical Topic

Day Day

1 Review of Amplifiers

2

Need for multistage amplifier & Gain of Review of Lab/

1st multistage amplifier

1

Practicals.

3

RC coupled multistage amplifier, its frequency

response and bandwidth

4

Transformer coupled Multistage Amplifier, its Plot the frequency

frequency response and bandwidth.

response of two stage

5

Direct coupled multistage amplifier, its RC coupled amplifier

2nd frequency response and bandwidth.

2 and calculate the

Difference between voltage and power

bandwidth and

compare it with single

6 amplifiers, Importance of impedance matching

stage amplifier.

in amplifiers.

7 Class A & Class B amplifiers,

8

Class AB and Class C amplifiers, collector

Efficiency & Distortion in Class A, B, C amplifiers

To measure the gain

3rd Single ended Power amplifiers, Graphical metho 3 of push-pull amplifier

9

of calculation (without derivation) of output at 1 KHz.

power, heat dissipation curve and importance of

heat sinks.

10 Push Pull Amplifier Revision / File

4th 11 Complementary Symmetry Push-Pull amplifier. 4

Assessment

12 Assignment topic/Test/Quiz.

Basic principal and types of feedback,

13 derivation of expression for gain of an To measure the

amplifier employing feedback

voltage gain of emitter

5th

Effect of feedback (negative) on gain, stability, 5

14 follower circuit and

distortion and bandwidth of and amplifier.

plot its frequency.

15 RC coupled amplifier with emitter bypass

capacitor.

16 Emitter follower amplifier and its application.

6th 17 Assignment –Topic & Class work Checking 6 Revision

18 Expert lecture

7th 19 Sessional Test 7

20

Use of positive feedback, Bark-hausen criterion Plot the frequency

for oscillations.

response curve of

21

Working principle of Tunned Collector Hartley and Colpitt’s

Oscillator

Oscillator

22

Working principle of Hartley and Colpitt’s Plot the frequency

Oscillator Circuits.

response curve of

8th

Working principle of Phase shift and wein- 8

23 phase shift and Wein

bridge Oscillator Circuits.

bridge Oscillator.

24 Working principle of crystal Oscillator Circuit.

25 Revision

26

Series and parallel resonant circuit and

9th bandwidth of resonant circuits. 9 Revision

27

Single tuned voltage amplifier & its frequency

response.

28

Double tuned voltage amplifier & its frequency Use of IC 555 as

response.

monostable

10th 29 Expert Lecture 10 multivibrator and

30 Working principle of transistor as switch.

observe the output for

different values

31

Concept of multi-vibrator: a stable, mono-

stable, and bistable and their applications.

32

Concept of multi-vibrator: a stable, mono- Use of IC as a stable

stable, and bistable and their applications.

multivibrator and

11th

11

observe the output at

33

Concept of multi-vibrator: a stable, mono- different duty cycles.

stable, and bistable and their applications.

34

Block diagram of IC555 and its working and

applications.

Revision

12th 35

IC555 as monostable and astable multi- 12

vibrator and bistable multivibrator.

36 Assignment topic/sessional.

Characteristics of an ideal operational To use IC 741

37 amplifier and its block diagram. (op-amp) as

13th

13

1.Inverter

38 IC-741 and its pin configuration 2. Adder

39

Definition of differential voltage gain, CMRR, 3.Subtractor

PSRR, slew rate and input offset current.

4.Integrator

Operational amplifier as an inverter, scale

40 change, adder Subtractor, differentiator, and To realize positive

integrator. and negative fixed

Operational amplifier as an inverter, scale voltage DC power

14th 41 change, adder Subtractor, differentiator, and 14 supply using three

integrator terminal voltage

Operational amplifier as an inverter, scale regulator IC (7805,

42 change, adder Subtractor, differentiator, and 7812

integrator.

15th 43 Concept of DC power supply, line and load

15 Prototype making/

regulation practice

44

Concept of fixed voltage, IC regulators

9like 7805, 7905), and variable

45 Voltage regulator like (IC 723)

46 Revision/ seminar

16th 47 Revision/ Seminar 16 Viva Voice

48 Sessional

Lesson Plan

Name of Faculty : Bhupender

Discipline : Electronics & Comm. Eng.

Semester : 3rd

Subject : Electrical Machine

Lesson Plan Duration : 15 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture Topic (Including Assignment/ Test

Practical Topic

Day

Day

1

Advantage of three-phase system over single-

phase system. Star Delta connection

1st 2 Relation between phase and line voltage and

1 Introduction to

current in a three phase system

Electrical Machine Lab

3

Power and power factor in three-phase

system

4

Measurements of Power by one, two and three To measure power and

wattmeter methods.

power factors in 3

2nd 5 Assignment / Problem Taking

2

Phase load by two

Principle of operation and constructional

6

wattmeter method

details of single phase transformer

7

Voltage Regulation of a transformer (No

Derivation) Losses in a transformer

To measure power and

3rd 8 Efficiency, condition for maximum efficiency

3 power factors in 3

and all day efficiency

Phase load by two

9

CTs and PTs (Current transformer and wattmeter method

potential transformer)

10 CVT (Constant Voltage Transformer ) To measure power and

11 Assignment / Problem Taking power factor of a

4th E.M.F induced in a coil rotating in a magnetic

4 single phase

12

induction motor.

field.

13 Definition of motor and generator To measure power and

14 Basic principle of a generator and a motor power factor of a

5th Torque due to alignment of two magnetic fields

5 single phase

15

induction motor.

and the concept of Torque angle

16

Basic Electromagnetic laws (Faraday’s laws of To determine the

Electromagnetic Induction)

efficiency of a single

17 Assignment phase transformer

6th 6 from the data obtained

18 Class Test

through open circuit

and short circuit test

19 Introduction to DC Machines To determine the

20 Principle of working of d.c motors and efficiency of a single

7th D.c generator, their constructional details

7 phase transformer

21

from the data

obtained through

open circuit and short

circuit test

22

Function of the commutator for motoring and To run a synchronous

generating action

motor with a.c supply

8th 23 Factors determining the speed of a DC motor 8 and to measure speed

24 Different types of excitation

to verify the relation

N=12O f/ P

25

Characteristics of different types of DC To run a synchronous

machines

motor with a.c supply

9th 26 Starting of DC motors and starters 9 and to measure speed

27 Application of DC machines

to verify the relation

N=12O f/ P

28 Assignment To make connections

29 Class Test of starting and running

winding of a single

10th Revolving magnetic field produced by poly 10 phase capacitor motor

30 phase supply and to run it with the

help a DOL starter and

to measure its speed

Brief introduction about three phase induction To make connections

31 motors, its principle of operation of starting and running

winding of a single

11th Principle and working of Synchronous 11 phase capacitor motor

32 Machines and to run it with the

help a DOL starter and

33 Application of Synchronous Machines to measure its speed

34 Assignment Study construction of a

35 Class Test stepper and

12th

12 servomotor and to

write their complete

36 Problem Taking

specifications.

37

Single Phase Fractional Kilowatt Motors Study construction of a

Introduction

stepper and

13th 38 Principle of operation of single phase motors

13 servomotor and to

Types of single phase induction motors and write their complete

39

specifications.

their constructional details

40

Single phase synchronous motors – reluctance

motor ( hysteresis motor)

14th 41

Introduction to Commutator type single-phase 14 Repeat if any Required

motors

42 Introduction to servo- motors

43 Introduction to stepper motors

15th 44 Concept of micro-motors 15 Viva-Vice

45 Assignment

46 Class Test

16th 47 Problem Taking 16

48 Test

Lesson Plan

Name of Faculty : Guest Faculty

Discipline : Electronics & Comm. Egg.

Semester : 3rd

Subject : Computer Programming using C Lesson Plan Duration : 15 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—04, Practical—03

Theory Practical

Week Lecture Topic (Including Assignment/ Test

Practical Topic

Day Day

1 Introduction to Algorithm Programming

1st 2 Introduction to Programming Development

1 exercises on

3 Steps in development of a program executing and

4 Flow charts editing a C program

5 Algorithm development Programming

6 Programme Debugging exercises on

2nd 7 Assignment / Problem Taking 2 defining variables

and assigning values

8 Introduction to Program Structure

to variables.

9 I/O statements, Programming

3rd 10 Assign statements

3 exercises on

11 Constants, variables

arithmetic and

12 Data types relational operators.

13 Operators and Expressions Programming

14 Standards and Formatted IOS exercises on

4th 15 Data Type Casting 4 arithmetic

expressions and

16 Assignment

their evaluation.

17 Problem Solving Programming

18 Control Structures Introduction exercises on

19 Decision making with IF – statement formatting

5th 5 input/output using

20 IF – Else a

printf and scanf and

their return type

values.

21 Nested IF Programming

22 While

6th

6 exercises using if

23 do-while

statement

24 for loop

25 Break. Continue Statement Programming

26 Got and switch statements

7th 7 exercises using if –

27 Assignment

Else

28 Class Test

8th 29 Problem Taking

8

30 Introduction to Pointers

31 Address operator and pointers Programming

32 Declaring Pointers

exercises on switch

statement

33 Initializing pointers Programming

34 Single pointer

9th 9 exercises on do –

35 Assignment

while, statement.

36 Class Test

37 Problem Taking Programming

10th 38 Introduction to functions 10 exercises on for –

39 Global and Local Variables statement.

40 Function Declaration

41 Standard functions

11th 42 Parameters and Parameter Passing

11 Programs on one-

43 Call - by value dimensional array.

44 Call - by Reference

45 Assignment

12th 46 Class Test

12 Programs on two-

47 Problem Taking dimensional array

48 Introduction to Arrays

49 Array Declaration, Length of array i) Programs for

13th 50 Single Array

13 putting two strings

51 Multidimensional Array together.

52 Arrays of characters

53 Passing an array to function (ii) Programs for

14th 54 Pointers to an array

14 comparing two

55 Assignment strings.

56 Class Test

57 Problem Taking

15th 58 Revision of Chapter 1

15 Simple programs

59 Revision of Chapter 2 using structures.

60 Revision of Chapter 3

61 Revision of Chapter 4

62 Revision of Chapter 5

16th

16 Repeat if any

63 Revision of Any Topic if required

required

64 Test

LESSON PLAN

NAME OF FACULTY : Tarni

DISCIPLINE : Electronics & Communication Engg

SEMESTER : 5th

SUBJECT : EMPLOYABILITY SKILLS –I

LESSON PLAN DURATION : 15 WEEKS

WORK LOAD (LECTURE/PRACTICAL) PER WEEK : (2 Practical’s)

PRACTICAL

WEEK

PRACTICAL TOPIC

DAY

1st 1 1. Writing skills Official and business correspondence

2nd 2 Job application - covering letter and resume (Cont.)

3rd 3 Job application - covering letter and resume.

4th 4 Report writing - key features and kinds.

5th 5 2. Oral Communication Skills Giving advice

6th 6 Making comparisons

7th 7 Agreeing and disagreeing

8th 8 Taking turns in conversation

9th 9 Fixing and cancelling appointments (Cont.)

10th 10 Fixing and cancelling appointments

11th 11 3. Generic Skills Stress management

12th 12 Time management

13th 13 Negotiations and conflict resolution

14th 14 Team work and leadership qualities

15th

15 Viva voce and evaluation

Lesson Plan

Name of Faculty : Jatin Kochar

Discipline : Electronics & Comm. Engg.

Semester : 5th

Subject : CONSUMER ELECTRONICS Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture Practical Topic

Day

Day

1 Audio Systems: To plot the

1st 2 Microphones and Loudspeakers 1st frequency response

3 Carbon, moving coil, cordless microphone of a Microphone

4 Direct radiating and horn loudspeaker To plot the

2nd 5 Multi-speaker system 2nd frequency response

6 Assignment of a Microphone

7 Problem Taking To plot the

3rd 8 Class Test 3rd frequency response

9 Sound Recording of a Loud Speaker

10 Magnetic Recording To plot the

4th 11 Digital Recording 4th frequency response

12 Optical Recording ( CD system and DVD) of a Loud Speaker

13 Television Trouble shooting of

5th 14 Monochrome TV 5th

CD/DVD Player

15 Elements of TV communication system

16 Scanning and its need

6th 17 Need of synchronizing and blanking pulses,

6th Trouble shooting of

VSB

CD/DVD Player

18 Composite Video Signal

19 Picture Tube Practical file

20 Camera Tube : Vidicon and Plumbicon

7th 7th Checking and viva-

TV Receiver: Block diagram, function of each

21

voice

block,

22

waveform at input and output To observe the wave

of each block

forms and measure

8th 23 Assignment 8th voltage of B/W TV

24 Problem Taking

Receiver at different

points

25 Class Test To observe the wave

26 Colour Television forms and measure

9th 9th voltage of B/W TV

27 Primary, secondary colours Receiver at different

points

28 Concept of Mixing, Colour Triangle To observe the

29 Camera tube waveforms and

measure voltages of

10th 10th colour TV Receiver

30 PAL TV Receiver at different points

31

Concept of Compatibility with Monochrome To observe the

Receiver

waveforms and

11th 32 NTSC, PAL, SECAM system ( brief comparison) 11th measure voltages of

33 Assignment

colour TV Receiver

at different points

34 Problem Taking

12th 35 Class Test

12th Fault finding of

36 LCD and LED Television: Basic principle and colour T.V

working of LCD and LED TV

37

LCD and LED Television: Basic principle and

working of LCD and LED TV

Fault finding of

13th

13th

38 Assignment colour T.V

39 Problem Taking

40 Class Test

41

Cable Television: Working of Cable TV, DTH,

14th HDTV 14th DTH System

42

Cable Television: Working of Cable TV, DTH,

HDTV

43 Assignment

15th 44 Problem Taking 15th Scanner

45 Class Test

46 Scanner

16th 47 Digital Camera Revision

48 VCD/DVD

Lesson Plan

Name of Faculty : Bhupender

Discipline : ECE

Semester : 5th

Subject : Optical Fiber Communication Lesson Plan Duration : 15 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture Topic (Including Assignment/ Test Practical Topic

Day

Day

1

Historical perspective, basic communication

systems

To set up fiber

1st

optical frequency range, advantages of optical 1st

2 analog link

fiber communication

3 application of fiber optic communication

4

Electromagnetic spectrum used, Advantages

of OFC

To set up fiber

2nd

2nd

5 Principle of light penetration analog link

6 reflection, critical angle

7 Assignment To set up optic

3rd 8 Problem Analysis 3rd

digital link

9 Fiber types construction

10 multimode and mono-mode fibers

4th 11 step index and graded index fibers

4th To set up optic

12 acceptance angle and types of optical fiber digital link

cables

13 Optical Fibers cable connectors To measure bending

5th 14 splicing techniques (Mechanical, fusion)

5th losses in optical

fibers

15 Assignment

16 Problem Analysis To observe and

6th 17 Absorption Losses 6th measure the splice

18 Scattering Losses or connector loss

19 Radiation losses To observe and

7th 20 Connector losses, Bending loses 7th measure the splice

21 Dispersion: Types and its effect on data rate or connector loss

Testing of losses using OTDR (Optical Time To measure and

22 Domain Reflectometer). calculate numerical

8th 8th aperture of optical

23 Assignment fiber

24 Problem Analysis

25

Characteristics of light source used in optical To measure and

communication,

calculate numerical

Characteristics of light source used in optical aperture of optical

9th 26 communication, principle of

9th fiber

operation of LED

27

different type of LED structures used and their

brief description

10th 28 LED driving circuitry 10th

29 Injection Laser diode, principle of operation To observe

different

characteristics of

30 injection laser diodes, comparison of LED and

optical source

ILD, non-semiconductor laser

Characteristics of photo detectors used in To observe

31

optical communication; PIN diode and characteristics of

avalanche photo diode (APD), their brief

optical detector

11th

11th

description

32 Assignment

33 Class test

34 Problem Analysis To connect a fiber

12th 35 Fiber alignment and joint losses 12th with connector at

36 splicing, types of splices both ends

37 types of connectors used To connect a fiber

13th 38 couplers, three and four port coupler, 13th with connector at

39 Stare coupler, fiber optic switch. both ends

40

Optical transmitter circuit, optical receiver To identify and use

circuit, optical power budgeting

various components

14th 41

Multiplexing Methods used. Modulation 14th and tools used in

methods used

optical fiber

42 Introduction to SDH, SONET communication

43 Assignment Revision of

15th 44 Class test 15th

Experiments

45 Problem Analysis

Lesson Plan

Name of Faculty : Prem Prakash

Discipline : Electronics & Comm. Eng.

Semester : 5th

Subject : MICROWAVE AND RADAR ENGINEERING Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Lecture Topic (Including Assignment/ Test

Practical Topic

Day Day

week 1 Introduction to microwaves and its

applications,

Classification on the basis of its General idea’s for lab

1st 2 frequency bands (HF, VHF, UHF, L, S, C, X, KU, 1st

Equipment’s

KA, mm, SUB, mm)

3

Rectangular and circular wave guides and

their applications

4

Mode of wave

Guide

To measure the

Propagation constant of a rectangular wave

5

electronics and

guide

2nd

2nd mechanical tuning

cut off wavelength,

range of a reflex

guide wavelength and their relationship with

6

klystron

free space wavelength (no

mathematical derivation)

7 Impossibility of TEM mode in a wave guide To measure the

8 REVISON /Assignment electronics and

3rd Constructional features, characteristics and

3rd mechanical tuning

9

range of a reflex

application of tees, bends

klystron

10

Constructional features, characteristics and

application of matched termination & twists

4th 11 Constructional features, characteristics and

4th To measure VSWR of

application of detector, mount, slotted section a given load.

12

Constructional features, characteristics and

application of directional coupler

13

Constructional features, characteristics and

application of fixed and variable attenuator

14

Constructional features, characteristics and To measure VSWR of

5th application of isolator, circulator 5th

a given load.

Constructional features, characteristics and

15 application of duplex, coaxial to wave guide

adapter

16 Assignment/ Test

17

Basic concepts of thermionic emission and To measure the

vacuum tubes

Klystron frequency

6th

Effects of interelectrode 6th

by slotted section

capacitance, Lead Inductance and Transit time

18

method

on the high frequency

performance of conventional vacuum tubes

19

steps to extend their high frequency

operations

Construction, characteristics, operating To measure the

7th 20 principles and typical applications of Multi

7th Klystron frequency

cavity klystron by slotted section

Construction, characteristics, operating method

21 principles and typical applications of Reflex

klystron

Construction, characteristics, operating

22 principles and typical applications of Multi-

cavity magnetron

Construction, characteristics, operating

8th 23 principles and typical applications of 8th Revision

Traveling wave tube

Construction, characteristics, operating

24 principles and typical applications of Gunn

diode and Impatt diode

25 Revision To measure the

9th 26 Expert Lecture/ Quiz

9th directivity and

27 General Trams and views for microwayse coupling of a

antennas

directional coupler.

28

Structure characteristics and typical To measure the

applications of Horn antennas

directivity and

10th

Structure characteristics and typical 10th

29 coupling of a

applications of Dish antennas

directional coupler.

30 Revision / Quiz /expert Lecture

31

Block diagram and working principles of To plot radiation

microwave communication link.

pattern of a horn

Troposcatter Communication Troposphere

11th 32 11th antenna in

and its properties

horizontal and

Troposcatter Communication Troposphere

33

vertical planes.

and its properties

34 Tropospheric duct formation and propagation To plot radiation

35 Tropospheric duct formation and propagation pattern of a horn

12th 12th antenna in

36 Roposcatter propagation. horizontal and

vertical planes.

37 Assignment To verify the

13th 38 Revision 13th properties of magic

39 Introduction to radar, its various applications tee.

40

radar range equation (no To verify the

derivation) and its applications

properties of magic

41

Block diagram and operating principles of tee.

basic pulse radar

14th 14th

Concepts of ambiguous range, radar area of

42 cross-section and its dependence on

frequency

43

Block diagram and operating principles with

application of CW (Doppler radar )

15th 44 Block diagram and operating principles with

15th Revision/ viva

application of FMCW radar

45

Block diagram and operating principles of MTI

radar.

46 Radar display- PPI

16th 47 Introduction to VSAT transponders multiple

16th Revision/ viva

access techniques

48 VSAT and its features

Lesson Plan

Name of the faculty : Manish Aggarwal

Discipline : Electronics & Comm. Engineering

Semester : 5th

Subject : Environmental Education

Lesson Plan Duration : 15 weeks (July-18 to Nov-18)

Work Load : (3 Periods/Week)

Theory

Week Lecture Day Topics

1st 1. Definition and Scope of Environmental Education

1st 2nd Importance of Environmental Education

3rd

2. Basics of ecology, biodiversity

4th Eco system

2nd 5th Sustainable development

6th

3. Sources of pollution - natural and manmade

7th Causes, effects of air pollution

3rd 8th Control measures of air pollution

9th

Causes, effects of noise pollution

10th Control measures of noise pollution

4th 11th Causes, effects of soil pollution

12th

Control measures of soil pollution

13th Causes, effects of radioactive pollution

5th 14th Control measures of radioactive pollution

15th

Causes, effects of nuclear pollution

16th Control measures of nuclear pollution

6th 17th Units of measurement of pollution

18th 4. Solid waste management- Causes and effects of urban waste

19th SESSIONAL I

7th 20th Control measures of urban waste

21th Causes and effects of industrial waste

22nd Control measures of industrial waste

8th

23rd 5. Mining and deforestation – Causes, effects of mining

24th Control measures of mining

25th Causes, effects of deforestation

9th 26th Control measures of deforestation

27th

6. Environmental Legislation - Water (prevention and control of

pollution) Act 1974

28th Air (Prevention and Control of Pollution) Act 1981

10th 29th Environmental Protection Act 1986

30th Role and Function of State Pollution Control Board

11th 31st Environmental Impact Assessment (EIA)

32nd

SESSIONAL II

33rd 7. Role of Non-conventional Energy Resources Solar Energy

34th Wind Energy

12th 35th Bio Energy

36th Hydro Energy

37th

8. Current Issues in Environmental Pollution – Global Warming, Green

House Effect

13th

38th Depletion of Ozone Layer, Recycling of Material

39th Environmental Ethics

40th Rain Water Harvesting

14th 41th Maintenance of Groundwater

42nd Acid Rain

43th Carbon Credits

15th 44th Revision

45th SESSIONAL III

LESSON PLAN

NAME OF FACULTY : Jatin Kochar/Manish Aggarwal

DISCIPLINE : Electronics & Communication Engg

SEMESTER : 5th

SUBJECT : Trouble Shooting of Electronics Equipment’s

LESSON PLAN DURATION : 15 WEEKS

WORK LOAD (LECTURE/PRACTICAL) PER WEEK : (6 Practical’s)

Practical

Week Day Topics

1st 1 Repair, Servicing and Maintenance Concepts

2 Demonstration and practice of fault finding and repair of CRO

2nd 3 Demonstration and practice of fault finding and repair of CRO

4 Fundamental Trouble Shooting Procedures

3rd 5 Demonstration and practice of fault finding and repair of Function Generator

6 Demonstration and practice of fault finding and repair of Function Generator

4th 7 Trouble Shooting Techniques

8 Demonstration and practice of fault finding and repair of Power Supplies

5th 9 Demonstration and practice of fault finding and repair of Power Supplies

10 Mobile Phones

6th 11 Demonstration and practice of fault finding and repair of Digital Multimeter

12 Demonstration and practice of fault finding and repair of Digital Multimeter

7th 13 SESSIONAL I

14 Trouble shooting and maintenance of testing equipment like C.R.O , function generator,

15 power supplies and other measuring devices, detailed discussion about trouble 8th

16 shooting of medical, electronic equipment like, ECG, EEG, Ultra sound. Repair and

maintenance and exposure of medical electronics equipment through industrial visits.

17

Demonstration, practice of fault finding and repair of any one equipment from group-I

i.e. Communication

9th

18 Demonstration, practice of fault finding and repair of any one equipment from group-I

i.e. Communication

19 Troubleshooting Digital Systems

10th 20

Demonstration and practical’s to be performed on following groups of Electronic

equipment, with compulsory visit to low service center.

21

Demonstration, practice of fault finding and repair of any one equipment from group-II

11th i.e. Consumer

22 SESSIONAL II

23

Demonstration, practice of fault finding and repair of any one equipment from group-III

i.e. Audio/Video systems

12th

24 Demonstration, practice of fault finding and repair of any one equipment from group IV

i.e. Computer

25

Demonstration, practice of fault finding and repair of any one equipment from group IV

13th i.e. Computer

26 Testing of Integrated Circuits (ICs)

14th 27 Testing of Integrated Circuits (ICs)

28 Use of digital tools for troubleshooting digital equipment’s

15th 29 Use of digital tools for troubleshooting digital equipment’s

30 SESSIONAL III

Lesson Plan

Name of Faculty : Ms. Tarni

Discipline : Electronics & Comm. Engg.

Semester : 5th

Subject : POWER ELECTRONICS

Lesson Plan Duration : 16 weeks

Work load (Lecture /Practical) per week (in hours): Lectures—03, Practical—03

Theory Practical

Week Lecture

Topic Practical

Topic

Day Day

1 Construction, Working principle of SCR To plot V-I

1st 2 two transistor analogy of SCR, 1st characteristic of an

3 V-I characteristics of SCR SCR

4 SCR specifications and ratings To plot V-I

2nd 5 Different methods of SCR triggering 2nd characteristics of

6 Different commutation circuits for SCR TRIAC.

7 Series and parallel operation of SCR To plot V-I

8 Revision / Assignment

3rd 3rd characteristics of

Construction and working principle of DIAC,

9

UJT

TRIAC and their V-I characteristics

Construction, working principle of UJT, V-I

10 characteristics of UJT. UJT as relaxation

Oscillator. To plot V-I

Brief introduction to Gate Turn off thyristor

4th

4th characteristics of

11 (GTO), Programmable Uni-junction

DIAC

Transistor (PUT), MOSFET.

12

Basic idea about the selection of Heat sink

for thyristor

Applications such as light intensity control,

13 speed control of universal motors, fan

5th regulator, battery charger

5th Revision

14 Single phase half controlled full wave rectifier

with load (R, R-L)

15 Fully controlled full wave bridge rectifier

16 Assignment/Test

17 Single phase full wave center tap rectifier Study of UJT

6th Principle of operation of basic inverter

6th relaxation oscillator.

circuits, concepts of duty cycle, series and And observe I/P and

18

parallel

O/P wave forms

Inverters and their applications

Choppers: Introduction, types of choppers Observation of wave

19 (Class A, Class B, Class C and Class D). shape of voltage at

relevant point of

7th 20 Step up and step down choppers.

7th single-phase half

wave controlled

21

Dual Converters and cyclo converters: Rectifier and effect

Introduction

of change of firing

angle.

22

types and basic working principle of Observation of wave

dual converters

shape of voltage at

8th 23

types and basic working principle of 8th relevant point of

dual converters

single-phase half

24 Revision wave controlled

Rectifier and effect

of change of firing

angle.

25 Revision Observation of wave

26 Expert Lecture/Quiz shapes of voltage at

relevant point of

9th

9th single phase full

wave controlled

27 Cyclo converters and their applications.

rectifier and effect

of change of firing

angle

28 Cyclo converters and their applications. Observation of wave

29 Thyristorised Control of Electric drives shapes of voltage at

relevant point of

10th

10th single phase full

wave controlled

30 Thyristorised Control of Electric drives

rectifier and effect

of change of firing

angle

31 DC drive control

11th 32 Half wave drives 11th Revision

33 Full wave drives

34

Chopper drives (Speed control of DC motor Observation of wave

using choppers)

shapes and

35

Chopper drives (Speed control of DC motor measurement of

using choppers) voltage at relevant

12th

12th points in TRIAC

based

36 Revision

AC phase control

circuit for Varying

lamp intensity and

AC fan speed control

37 Revision Observation of wave

38 Assignment shapes and

measurement of

voltage at relevant

13th

13th points in TRIAC

based

39 AC drive control

AC phase control

circuit for Varying

lamp intensity and

AC fan speed control

40 AC drive control Installation of UPS

14th 41 Phase control

14th system and routine

42 Constant V/F operation maintenance of

batteries

43 Cycloconverter/Inverter drives Installation of UPS

15th 44 Cycloconverter/Inverter drives

15th system and routine

45 Un interrupted Power Supply (UPS) maintenance of

batteries

46

UPS: Block Diagram & specifications of on-

line, off line and Smart UPS

16th

16th Revision

47 Concept of high voltage DC transmission

48 Concept of high voltage DC transmission