Specimen of lesson Plan Name of the Faculty : Smt. Suchet Kumari Discipline : Electronics and Communication Engg. Semester : 3rd Subject : PRINCIPLES OF COMMUNICATION ENGINEERING

Lesson Plan Duration : July-Nov-2018 Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture) 03 Hours per Group (PRACTICAL)

Week

Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction about subject,- Need for modulation To observe an AM wave on

CRO produced by a standard signal generator using

internal and external modulation

2

frequency translation and demodulation in communication systems

3 Basic scheme of a modern communication system

2nd

4 Derivation of expression for an amplitude modulated wave.

To measure the modulation

index of the wave obtained in above practical

5 Carrier and side band components. Modulation index

6

Spectrum and BW of AM Wave. Relative power distribution in carrier and side bands.

3rd

7 Elementary idea of DSB-SC

To obtain an AM wave from

a square law modulator circuit and observe

waveforms

8 SSB-SC, ISB

9 VSB modulations, their comparison, and areas of applications

4th

10 Expression for frequency modulated wave and its frequency

spectrum (without Proof and analysis of Bassel function)

To measure the modulation

index of the obtained wave form.

11

Modulation index, maximum frequency deviation and

deviation ratio, BW of FM signals

12 Carson’s rule.

5th

13 Effect of noise on FM carrier, Noise triangle, Role of limiter

To obtain an FM wave and

measure the frequency deviation for different

modulating signals.

14 Need for pre-emphasis and de-emphasis, capture effect.

15 Comparison of FM and AM in communication systems

6th

16 1st Sessional To obtain modulating signal from an AM detector circuit

and observe the pattern for different RC time constants

and obtain its optimum value

for least distortion.

17

Derivation of expression for phase modulated wave, modulation index, comparison with frequency modulation

18 Collector and Base Modulator

7th

19 Collector and Base Modulator To obtain modulating signal

from an AM detector circuit and observe the pattern for

different RC time constants and obtain its optimum value

for least distortion.

20 Square Low Modulator

21 Balanced Modulator

8th

22 Working principles and applications of reactance modulator

To obtain modulating signal from FM detector.

23 varactor diode modulator

24 VCO and Armstrong phase modulator

9th

25 Stabilization of carrier using AFC (Block diagram approach).

To obtain modulating signal

from FM detector.

26 Stabilization of carrier using AFC (Block diagram approach).

27 Principles of demodulation of AM wave using diode

10th

28 detector circuit; concept of Clipping To observe the sampled

signal and compare it with the analog input signal.

Note the effect of varying

the sampling pulse width and frequency on the sampled

output

29

Clipping and formula for RC time constant for minimum distortion (no derivation

30 Revision

11th

31 Revision To observe and note the

pulse amplitude modulated

signal (PAM) and compare them with the corresponding

analog input signal

32 2nd Sessional Test

33 Basic principles of FM detection using slope detector

12th

34 Foster-Seeley discriminator

To observe PPM and PWM

signal and compare it with

the analog input signal

35 Foster-Seeley discriminator

36 Ratio detector

13th

37 Block diagram of Phase locked Loop (PLL) FM demodulators (No Derivation)

Revision & Viva

38 Block diagram of Phase locked Loop (PLL) FM demodulators (No Derivation)

39

Statement of sampling theorem and elementary idea of

sampling frequency for pulse modulation

14th

40 Basic concepts of time division multiplexing (TDM)

Revision & Viva

41 frequency division multiplexing (FDM)

42 Pulse Amplitude Modulation (PAM)

15th

43 Pulse Position Modulation (PPM),

Revision & Viva

44 Pulse Width Modulation (PWM).

45 3rd Sessional Test

Specimen of lesson Plan Name of the Faculty : Sh. Inderjeet Singh Dhindsa Discipline : Electronics and Communication Engg. Semester : 3rd Subject : COMPUTER PROGRAMMING USING C

Lesson Plan Duration : Jan-Apr-2018 Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture)03 Hours per Group (PRACTICAL)

Week Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction to Algorithm Programming exercises on

executing and editing a C program

2 Introduction to Programming Development

3

Steps in development of a program

4

Flow charts

2nd

5 Algorithm development Programming exercises on

defining variables and assigning

values to variables. 6

Programme Debugging

7

Assignment / Problem Taking

8

Introduction to Program Structure

3rd

9 I/O statements, Programming exercises on

arithmetic and relational

operators. 10

Assign statements

11

Constants, variables

12

Data types

4th

13 Operators and Expressions Programming exercises on

arithmetic expressions and their evaluation.

14 Standards and Formatted IOS

15

Data Type Casting

16

Assignment

5th 17

Problem Solving Programming exercises on formatting input/output using

printf and scanf and their return type values.

18

Control Structures Introduction

19 Decision making with IF – statement

20

IF – Else a

6th

21 Nested IF Programming exercises using if

statement

22

While

23

do-while

24

for loop

7th

25 Break. Continue Statement Programming exercises using if –

Else

26

Got and switch statements

27

Assignment

28

Class Test

8th

29 Problem Taking

Programming exercises on

switch statement

30

Introduction to Pointers

31

Address operator and pointers

32

Declaring Pointers

9th

33 Initializing pointers

Programming exercises on do – while, statement.

34

Single pointer

35

Assignment

36

Class Test

10th

37 Problem Taking

Programming exercises on for –

statement.

38

Introduction to functions

39

Global and Local Variables

40

Function Declaration

11th

41 Standard functions

Programs on one- dimensional

array.

42

Parameters and Parameter Passing

43

Call - by value

44 Call - by Reference

12th

45 Assignment

Programs on two- dimensional array

46

Class Test

47

Problem Taking

48

Introduction to Arrays

13th

49 Array Declaration, Length of array

i) Programs for putting two strings together.

50

Single Array

51

Multidimensional Array

52

Arrays of characters

14th

53 Passing an array to function

(ii) Programs for comparing two strings.

54

Pointers to an array

55

Assignment

56

Class Test

15th

57 Problem Taking

Simple programs using

structures.

58

Revision of Chapter 1

59

Revision of Chapter 2

60

Revision of Chapter 3

16th

61 Revision of Chapter 4

Repeat if any required

62

Revision of Chapter 5

63

Revision of Any Topic if required

64

Test

Specimen of lesson Plan Name of the Faculty : Sh. Rajiv Sapra Discipline : Electronics and Communication Engg. Semester : 3rd Subject : DIGITAL ELECTRONICS Lesson Plan Duration : July- Nov-2018 Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture)03 Hours per Group (PRACTICAL)

Week Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction about subject Verification and interpretation of truth tables for AND, OR, NOT

NAND, NOR and Exclusive OR (EXOR) and Exclusive

NOR(EXNOR) gates

2 Distinction between analog and digital signal.

3 Applications and advantages of digital signals.

2nd

4 Number System Verification and interpretation of truth tables for AND, OR, NOT

NAND, NOR and Exclusive OR

(EXOR) and Exclusive NOR(EXNOR) gates

5 Binary, octal and hexadecimal number system:

6

conversion from decimal and hexadecimal to binary and vice-versa.

3rd

7 Binary addition and subtraction including binary points

Realisation of logic functions with

the help of NAND or NOR gates

8 1’s and 2’s complement method of addition/subtraction.

9

Codes and Parity Concept of code, weighted and non-

weighted codes, examples of 8421

4th

10 BCD, excess-3 and Gray code.

To design a half adder using XOR and NAND gates and verification

of its operation

11

Concept of parity, single and double parity and error

detection

12

Logic Gates and Families, Concept of negative and

positive logic

5th

13 Definition, symbols and truth tables of NOT, AND

Construction of a full adder circuit

using XOR and NAND gates and verify its operation

14

OR, NAND, NOR, EXOR Gates, NAND and NOR as

universal gates.

15 Introduction to TTL and CMOS logic families

6th 16 1st Sessional Test

Verification of truth table for positive edge triggered, negative

17 Logic Simplification Postulates of Boolean algebra, De Morgan’s Theorems

edge triggered, level triggered IC

flip-flops (At least one IC each of D latch , D flip-flop, JK flip-flops).

18 Implementation of Boolean (logic) equation with gates

7th

19 Karnaugh map (upto 4 variables) Verification of truth table for

positive edge triggered, negative edge triggered, level triggered IC

flip-flops (At least one IC each of

D latch , D flip-flop, JK flip-flops).

20 and simple application in developing

21 combinational logic circuits

8th

22 Arithmetic circuits Half adder and Full adder circuit, design

and implementation

Verification of truth table for

encoder and decoder ICs, Mux

and DeMux

23 4 bit adder circuit

24

Decoders, Multiplexeres, Multiplexeres and Encoder Four bit decoder circuits for 7 segment display and

decoder/driver ICs

9th

25 Basic functions and block diagram of MUX

Verification of truth table for

encoder and decoder ICs, Mux and DeMux

26 DEMUX with different ICs

27 Basic functions and block diagram of Encoder

10th

28 Latches and flip flops Concept and types of latch with their working and applications To design a 4 bit SISO, SIPO,

PISO, PIPO shift registers using JK/D flip flops and verification of

their operation

29 Operation using waveforms and truth tables of RS,

30 T, D, Master/Slave JK flip flops.

11th

31 Difference between a latch and a flip flop

To design a 4 bit ring counter

and verify its operation

32 2nd Sessional Test

33

Counters Introduction to Asynchronous and Synchronous

counters

12th

34 Binary counters

Use of Asynchronous Counter ICs

(7490 or 7493)

35 Divide by N ripple counters,

36 Decade counter, Ring counter

13th

37 Shift Register Introduction and basic concepts including

shift left and shift right Revision

38

Serial in parallel out, serial in serial out, parallel in serial

out, parallel in parallel out.

39 Universal shift register

14th

40 A/D and D/A Converters

Revision

41 Stair step Ramp A/D converter, Dual Slope A/D

converter

42 Successive Approximation A/D Converter

15th

43 Detail study of : Binary Weighted D/A converter

Revision & Viva

44 R/2R ladder D/A converter

45 Applications of A/D and D/A converter

16th

46 Semiconductor Memories, Memory organization, classification of semiconductor memories (RAM, ROM,

PROM, EPROM, EEPROM),

Revision & Viva 47 static and dynamic RAM, introduction to 74181 ALU IC

48 3rd Sessional Test

Specimen of lesson Plan

Name of the Faculty : Sh.Pankaj Oberoi

Discipline : Electronics and Communication Engg.

Semester : 3rd

Subject : ELECTRONIC INSTRUMENTS AND MEASUREMENT

Lesson Plan Duration : July- Nov-2018

Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture)03 Hours per Group (PRACTICAL)

Week Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction about subject

Measurement of voltage,

resistance, frequency using

digital multimeter 2

ch-1. Measurement, method of measurement, types of instruments

3 Specifications of instruments Accuracy, precision

2nd

4 Specifications of instruments sensitivity, resolution, range, errors in measurement

Measurement of voltage, resistance, frequency using

digital multimeter 5 sources of errors, limiting errors,

6 loading effect, importance and applications of standards and

calibration

3rd

7 Class work/Assignment and revision.

Measurement of voltage, frequency, time period and

phase using CRO 8 Ch-2 . Principles of measurement of DC voltage

9 Principles of measurement of DC current

4th

10 Principles of measurement of AC voltage

Measurement of voltage,

frequency, time period and phase using CRO

11 Principles of measurement of AC current

12 Principles of operation and construction of permanent magnet moving coil (PMMC) instruments

5th

13 Moving iron type instruments

Practical file Checking and viva-voice

14 Class work and revision.

15 Class work and revision.

6th

16 1st Sessional Test Measurement of voltage,

frequency, time and phase using DSO 17 Ch-3. Construction and working of Cathode Ray Tube(CRT)

18 Block diagram description of a basic CRO and triggered sweep oscilloscope

7th

19 Front panel controls

Measurement of voltage, frequency, time and phase

using DSO 20 Specifications of CRO and their explanation

21 Measurement of current, voltage, frequency

8th

22 Measurement of current time period and phase using CRO

Measurement of Q of a coil 23 Digital storage oscilloscope (DSO) block diagram and

working principle

24 Class work/Assignment and revision.

9th

25 Class work/Assignment and revision.

Measurement of Q of a coil 26 Ch-4. Wheat stone bridge

27 AC bridges: Maxwell’s induction bridge

10th

28 Hay’s bridge, De-Sauty’s bridge,

Practical file Checking and viva-voice

29 Schering bridge and Anderson bridge

30 Bock diagram description of laboratory type RLC bridge, specifications of RLC bridge

11th

31 Block diagram and working principle of Q meter and revision

Measurement of resistance and inductance of coil using RLC

Bridge 32 2nd Sessional Test

33 Ch-5. Explanation of block diagram specifications of low

frequency, RF generators

12th

34 pulse generator, function generator

Measurement of impedance

using Maxwell Induction Bridge 35 Distortion factor meter

36 Instrumentation amplifier: its characteristics, need and

working

13th

37 Class work/Assignment and revision.

To find the value of unknown

resistance using Wheat Stone Bridge

38 Class work/Assignment and revision.

39 Ch-6. Comparison of analog and digital instruments

14th

40 Working principle of ramp, dual slope digital voltmeter.

Measurement of distortion

using Distortion Factor Meter 41 Working principle of integration type digital voltmeter

42 Block diagram and working of a digital multi-meter

15th

43 Specifications of digital multi-meter and their applications

Use of logic pulser and logic

pobe 44 Limitations of digital multi-meters

45 Working principle of logic probe, logic pulser analyzer

16th

46 Working principle of logic analyzer and signature analyzer

Practical file Checking and viva-

voice 47 Class work/ Revision.

48 3rd Sessional Test

Specimen of lesson Plan

Name of the Faculty : Sh.Pankaj Oberoi

Discipline : Electronics and Communication Engg.

Semester : 3rd

Subject : ELECTRICAL MACHINES

Lesson Plan Duration : July- Nov-2018

Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture)03 Hours per Group (PRACTICAL)

Week Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction about Three Phase Supply Demonstrate various instruments

use viz Ammeter, Voltmeter,

Wattmeter, p.f meter etc for their identification and and connecting

procedure in a circuit.

2 Advantage of three-phase system over single-phase

system.

3 Star Delta connections

2nd

4 Relation between phase and line voltage and current in a three phase system

To measure power and power factors in 3 Phase load by two

wattmeter method 5 Power and power factor in three-phase system

6 their measurements by one, two and three wattmeter

methods.

3rd

7 Introduction about Transformers

To determine the efficiency of a single phase transformer from the

data obtained through open circuit

and short circuit test

8 Principle of operation and constructional details of

single phase transformer

9 Voltage Regulation of a transformer (No Derivation)

4th

10 Losses in a transformer

To determine the efficiency of a

single phase transformer from the data obtained through open circuit

and short circuit test

11 Efficiency, condition for maximum efficiency and all day efficiency

12 CTs and PTs (Current transformer and potential

transformer)

5th

13 CVT (Constant Voltage Transformer)

To measure power and power

factor of a single phase induction motor.

14 1st Sessional Test

15 Introduction to Rotating Electrical Machines

6th 16 Definition of motor and generator To run a synchronous motor with a.c supply and to measure speed to

17 Basic principle of a generator and a motor verify the relation N=12O f/ P

18 Torque due to alignment of two magnetic fields

7th

19 concept of Torque angle To make connections of starting

and running winding of a single phase capacitor motor and to run it

with the help a DOL starter and to measure its speed

20 Basic Electromagnetic laws (Faraday’s laws of

Electromagnetic Induction)

21 Introduction to DC Machines

8th

22 Principle of working of d.c motors and d.c generator

Study construction of a stepper and

servomotor and to write their complete specifications.

23 their constructional details

24 Function of the commutator for motoring and generating action

9th

25 Factors determining the speed of a DC motor

Study construction of a stepper and servomotor and to write their

complete specifications. 26 Different types of excitation

27 Characteristics of different types of DC machines

10th

28 Characteristics of different types of DC machines

Revision 29 Starting of DC motors and starters

30 Application of DC machines

11th

31 Application of DC machines

Revision 32 2nd Sessional Test

33 Introduction to A.C. Motors

12th

34 Revolving magnetic field produced by poly phase

supply

Revision 35 Brief introduction about three phase induction motors,

its principle of operation

36 Principle and working of Synchronous Machines

13th 37 Application of Synchronous Machines Revision

38 Introduction to Single Phase Fractional Kilowatt Motors

39 Introduction - Principle of operation of single phase motors

14th

40 Types of single phase induction motors

Revision 41 their constructional details

42 Single phase synchronous motors – reluctance motor (

hysteresis motor)

15th

43 reluctance motor ( hysteresis motor)

Revision 44 Introduction to Commutator type single-phase motor

45 Introduction to servo- motors

16th

46 stepper motors

Revision 47 Concept of micro-motors.

48 3rd Sessional Test

Specimen of lesson Plan Name of the Faculty : Sh.Sandeep Goel Discipline : Electronics and Communication Engg. Semester : 3rd Subject : ELECTRONIC DEVICES AND CIRCUITS Lesson Plan Duration : July- Nov-2018 Work Load (Lecture/ Practical) per week (in hours): 03 HOURS (Lecture)03 Hours per Group (PRACTICAL)

Week Theory Practical

Lecture day

Topic (including assignment/ test) Topic

1st

1 Introduction about Multistage Amplifiers Plot the frequency

response of two stage

RC coupled amplifier

and calculate the

bandwidth and

compare it with single

stage amplifier

2 Need for multistage amplifier - Gain of multistage amplifier

3 Different types of multistage amplifier like RC coupled

transformer coupled, direct coupled

2nd

4 their frequency response and bandwidth, Difference between voltage and power amplifiers ,mportance of impedance matching in amplifiers To measure the gain

of push-pull amplifier at 1KHz

5

Class A, Class B

6 Class AB, and Class C amplifiers

3rd

7 collector efficiency and Distortion in class A,B,C To measure the

voltage gain of emitter follower circuit and plot its frequency

response

8 Single ended power amplifiers, Graphical method of

calculation (without derivation) of out put power

9 heat dissipation curve and importance of heat sinks

i

i) Adder,

4th

10 Push-pull amplifier, and complementary symmetry push-pull amplifier Plot the frequency

response curve of Hartley and Colpitt’s

Oscillator

11

Basic principles and types of feedback

12 Derivation of expression for gain of an amplifier employing feedback

5th

13 Effect of feedback (negative) on gain, stability, distortion and bandwidth of an amplifier

Viva

14 RC coupled amplifier with emitter bypass capacitor

15

Emitter follower amplifier and its application

6th

16 1st Sessional Test Plot the frequency response curve of

phase shift and Wein bridge Oscillator

17 Use of positive feedback, Barkhausen criterion for

oscillations

18 Different oscillator circuits-tuned collector, Hartley

7th

19 Colpitts, phase shift, Wien’s bridge, Use of IC 555 as

monostable multivibrator and

observe the output for different values of RC

20

Basic Electromagnetic laws (Faraday’s laws of Electromagnetic Induction)

21 crystal oscillator. Their working principles (no mathematical

derivation but only simple numerical problems)

8th

22 Series and parallel resonant circuits and bandwidth of resonant circuits Use of IC 555 as

astable multivibrator and observe the

output at different duty cycles

23

Single and double tuned voltage amplifiers

24 frequency response characteristics

9th

25 Working principle of transistor as switch

Viva

26 Concept of multi-vibrator: astable, monostable

27

bistable and their applications

10th

28 Block diagram of IC555 and its working and applications To use IC 741 (op-

amplifier) as i) Inverter, ii) Adder, iii) Subtractor iv) Integrator

29

IC555 as monostable

30 astable multi-vibrator

11th

31 bistable multivibrator

To realize positive

and negative fixed

voltage DC power

supply using three

terminal voltage

regulator IC (7805,

7812, 7905)

32

2nd Sessional Test

33 Characteristics of an ideal operational amplifier and its block diagram

12th

34 IC-741 and its pin configuration

Revision

35 Definition of differential voltage gain

36

CMRR, PSRR

13th

37 slew rate and input offset current

Revision

38 Operational amplifier as an inverter

39

scale changer, adder

14th

40 subtractor, differentiator

Revision

41 integrator

42

Concept of DC power supply

15th

43 Line and load regulation

Viva

44 Concept of fixed voltage

45

IC regulators (like 7805, 7905),

16th

46 variable voltage regulator like (IC 723)

Viva

47 Revision

48 3rd Sessional Test