CENTURION UNIVERSITY OF TECHNOLOGY & · PDF fileINTRODUCTION Estimation- Definition of Estimate-Purpose- Necessity of Estimates ... B.N. Dutta, UBS Publishers ... Costing, Specification

CENTURION UNIVERSITY OF TECHNOLOGY & MANAGEMENT

DOMAIN BASED RE-ORIENTATION OF COURSES

DEPARTMENT OF CIVIL ENGINEERING

7th

& 8th

Semesters

Subject Code Course Title Course Nature Credits

PCCE 4101 Estimating, Costing & Quantity Surveying Theory + Practice 4

PCCE 4103 Steel Structures Design, Drawing & Detailing Theory + Practice 7

PCCE 4201 Construction Planning & Project Management Theory 3

DMHS0001 Life Skills Development Practice 2

Credits thro’ Core & Common Courses 16

Domain List

(A student has to select any one domain for a minimum of 32 Credits)

Domain I: Construction Planning and Management Domain II: Surveying

Domain III: Planning, Design & Drawing

32

TOTAL(16+ 32) = 48 TOTAL 48

MECHANICAL ENGINEERING

7th

& 8th

Semesters

Subject Code Course title Course Nature Credits

PCME 4101 Heat Transfer Theory 4

PCME 4102 Optimization Techniques Theory 4

PCME 4201 Product design and product tooling Theory 4

PLME 4111 Heat Transfer & Refrigeration and Air-conditioning Lab Practice 2

DMHS 0001 Life Skills Development Practice 2

Credits through Core & Common courses 16

Domain List

(A student has to select any one domain for a minimum of …36…. credits)

Domain 1: AUTOMOTIVE DESIGN

Domain 2: WELDING Domain 3: MANUFACTURING

36

TOTAL (16+36) =52 TOTAL 52

COMPUTER SCIENCE & ENGINEERING

7th

& 8th

Semesters


PCCS4102 Database Design & Implementation Theory + Practice + Project 8

PCCS4103 Project in Java / .net Project 4



Domain List

(A student has to select any one domain for a minimum of 30 Credits) 1. Web Technology

2. Data Analytics

3. Internet Security

30

TOTAL (14 + 30) = 44 TOTAL 44

ELECTRONICS & COMMUNICATIONS ENGINEERING


PCEC4101 Microwave and Radar Engineering Theory 4

PCEC4201 Satellite and Optical Communication Theory 4

PLEC4111 Microwave and Antenna Lab Practice 2




Domain I: Embedded System

Domain II: VLSI Design and Verification

32

TOTAL (12 + 32) = 44 TOTAL 44

ELECTRICAL ENGINEERING


PCEL 4101 Power System Operation & Control Theory 4

PCEL 4201 Power System Protection Theory 4

PLEL4105 Power System Analysis Lab (Common with EEE) Practice 2



Domain List


Domain I: Embedded System

Domain II: Industrial Automation

34

TOTAL (12 + 34) = 46 TOTAL 46

ELECTRICAL & ELECTRONICS ENGINEERING

7th

& 8th

Semesters


PCEE4101 Electrical Drives Theory 4

PCEE4102 Power System Analysis Theory 4

PLEL4105 Power System Analysis Lab (Common with EE) Practice 2

PLEE4106 Electrical Drives Lab Practice 2 DMHS0001 Life Skills Development Practice 2

Credits thro’ Core & Common Courses 14 Domain List


Domain I: Embedded System Domain II: Industrial Automation

36

TOTAL (14 + 36) = 50 TOTAL 50

CIVIL ENGINEERING

PCCE 4101 ESTIMATING, COSTING& QUANTITY SURVEYING (CREDITS:4)

COURSE OBJECTIVES:

1. To provide knowledge about the different parts of buildings, bridges and culvert.

2. To make understand detailed estimate of roads.

3. To make familiar with calculation of quantities.

4. To provide knowledge about the current rates of different materials and labours used in different items of

construction works.

5. To make student familiar with drawing(plans, elevations, sections,etc)for finding out the dimensions.

COURSE OUTCOMES:

1. Gain knowledge about how to estimate different construction works.

2. Analyse and calculate dry material in different construction works.

Module I (20hr)

INTRODUCTION Estimation- Definition of Estimate-Purpose- Necessity of Estimates- Types of Estimates-

A derailed Estimate-A preliminary-Quantity-Revised-Supplementary-Revised-Complete Estimate-Annual

Maintenance Estimation,

How to prepare a detailed Estimate-Measurement form-Abstract of Estimate form. Data required for preparing

detailed estimates.

Estimation of materials in single storeyed flat roof building with shallow foundation and RCC roof slab, two

storied building with all items of work

BRIDGES AND CULVERTS-Definition-common terms-Process of calculation of earth work for Abutment,

Wing and Curtain walls. Estimation of materials in Slab Culverts

simple inclined roof building with gabled / hipped roof and A.C. sheet / G.C.I. sheet proofing

Module II (15hr)

Principles of general and detailed specification for various types building works.

Analysis of rates, description, Prime cost, Schedule rates, Analysis of rates for various types of works.

Module – III (10hr)

Works- Classification of work-original, major, petty, repair work, annual repair, special repair

Contract Management:

Legal aspects, contract laws related to land acquisition, labour safety and welfare. Different types of contracts,

their relative advantages and disadvantages. Elements of tender operation. Evaluation of tenders, Award of

work,

Measurement book use & maintenance, procedure of marking entries of measurement of work and supply of

materials, labour employed, standard measurement books and common irregularity

Exercises for Sessional Work:

Text Books:

1. Estimating and Costing in Civil Engineering Theory & Practice, B.N. Dutta, UBS Publishers

Reference Books:

1. Estimating, Costing, Specification & Valuation in Civil engineering, M. Chakraborti

2. Civil engineering contracts and estimates by B.S. Patil, University Press.

3. Latest Orissa PWD and CPWD Schedule of Rates & Analysis of rates.

Module I

S.

No.

Topic Pedagogy Details Instructional Hrs

Theory Practice video Project

1

Introduction to Estimation

Definition of Estimate

Types of Estimates

Ref: T.B.:1B.N.DUTTA,pp-448,449, 452,453,454

CRT

Presentat

ion Mode

2

2

Preparation of detailed Estimate

Details of Measurement form

Abstract of Estimate form

Data required for preparing detailed estimates.

Units of Different items of works

Ref:T.B.:1 B.N.DUTTA,pp-4,5,14

CRT 1

3

Estimation of materials in single storeyed flat roof building

Methods of building estimates

Long Wall and Short Wall Method

Centre Line Method

Ref:T.B.:1 B.N.DUTTA,pp-29

CRT 1

4

Problem solving by using Long Wall and Short Wall

Method(Single Room, Double Room)

Ref:T.B.:1 B.N.DUTTA,pp- 31, 35

CRT+PRA

CTICE

Using

Estimator

2 Software

1 2

5

Problem solving by using Long Wall and Short Wall

Method(Residential Building,Double Storied Building )

Ref:T.B.:1 B.N.DUTTA,pp- 38

CRT+PRA

CTICE 1 4

6

Estimate of an office building, one of the room having Semi-

Circular Front

Problem solving by using Centre Line Method

Ref:T.B.:1 B.N.DUTTA,pp-46, 135

CRT+PRA

CTICE 1 2

7

BRIDGES AND CULVERTS

Process of calculation of earth work for Abutment,

Wing and Curtain walls. Estimation of materials in

Slab Culverts


CRT+PRA

CTICE Practice

through

Problem

Solving

1 2

8

Simple inclined roof building with gabled / hipped roof and

A.C. sheet / G.C.I. sheet proofing


CRT+PRA

CTICE 1 1

Subtotal 9 11 0 0

Module II

S.

No.



9 Specification

Various types of specifications

Principles of general specification for various types

building works. Ref:T.B.:1 B.N.DUTTA,pp-563

CRT Presentation Mode

1

10 Principles of detailed specification for various types

building works


CRT Presentatio

n Mode 2

11 Analysis of rates

Description

Difference between General Overhead and Job

Overhead

Task Or Out-Turn Work

Prime Cost

Schedule of rates

Building Cost Index

Bill of Quantities Ref:T.B.:1 B.N.DUTTA,pp-472, 458,459,460

CRT Presentatio

n Mode

1

12 Analysis of rates for various types of works.


CRT 2

13 Problems for Analysis of rates

Ref:T.B.:1 B.N.DUTTA,pp-482, 485, 486, 487

Practice

Using

Estimator 2 Software

3

14 Problems for Analysis of rates (Brick Work)


CRT +

Practice

1 2

15 Problems for Analysis of rates (Plastering)

Ref:T.B.:1 B.N.DUTTA,pp-499 1 2

16 Problems for Analysis of rates (Cement Concrete Floor)

Ref:T.B.:1 B.N.DUTTA,pp-503 1 2

Sub Total 9 9 0 0

Module III

S.

No.

Topic Pedago

gy

Details Instructional Hrs


17 Works

Classification of work according to their nature

original work

repair work

Classification of work according to their nature

petty work

major work

minor work


CRT Presentation

Mode

1

18 Different types of repairs work

annual repair

special repair Ref:T.B.:1 B.N.DUTTA,pp-687

CRT Presentatio

n Mode 1

19 Contract Management:

Legal aspects

contract laws related to land acquisition


CRT Presentatio

n Mode 1

20 Different types of contracts their relative advantages and

disadvantages

Ref:T.B.:1M.CHAKRABORTI,pp-656

CRT Presentatio

n Mode 1

21 Different types of contracts their relative advantages and

disadvantages(Continued)

Ref:T.B.: 1M.CHAKRABORTI,pp-656

CRT Presentatio

n Mode 1

22 Tender and Bill

Power of accepting tender

Ref:T.B.:1 B.N.DUTTA,pp-687,688

CRT+P

RACTI

CE

Presentatio

n Mode+

Practice

using

estimator 2 Software

1 2

23 Tender notice

Ref:T.B.:1 B.N.DUTTA,pp-687,688

CRT 2

24 Measurement book

use & maintenance

procedure of marking entries of measurement of work

and supply of materials


CRT Presentatio

n Mode

1

25 standard measurement books


CRT Presentatio

n Mode 1

Sub Total 10 2 0 0

PCCE4103 STEEL STRUCTURES Design, Drawing & Detailing (3-1-0) CREDITS: 7

Note: only IS-800-2007 and Steel table will be allowed in the examination hall

Course Objectives:

1. To introduce the basic concepts and steps steel structures design mainly in accordance limit state of method.

2. To help the student develop an intuitive feeling about structural and material wise behavior and design of steel structures

with different modes of fasteners like bolted connection and welded connection.

3. To make the students capable of identify and apply the applicable industry design codes relevant to the design of steel

structures.

4. To become familiar with professional and contemporary issues in the design and fabrication of steel structures.

Course Outcomes:

At the end of this course the students will be able to:

1. Understand general mechanical behaviour of steel with different sectional behaviour.

2. Understand the analysis & design of bolted and welded connection.

3. Understand the analysis & design of steel compression members.

4. Understand the analysis & design of steel tension members.

5. Analyse the laterally supported and unsupported beam..

6. Understand the analysis & design of types of base slabs and gusseted slab.

7. Get knowledge about design of purlin of roof truss and wind pressures on roof.

Module-I (30 Hrs): STEEL STRUCTURES

(A) Fundamental Concepts of limit state design of structures.

(B) Different types of rolled steel sections available to be used in steel structures.

(C) Bolted connection: Types of bolts, Advantages and disadvantages of bolted connections, types of bolted

connection, Failure of bolted joint, Design strength of bolts, Analysis and design of bolted joints subjected to

axial load, Analysis and design of bearing bolts subjected to eccentric load .Analysis of high strength friction grip

bolts

(D) Welded Connections: Advantages of welding, Types and properties of welds, Types of joints,

specifications Design of welded joints subjected to axial load, Eccentric welded connections.

Module-II (40 Hrs):

(A) Tension members. Types of tension members, modes of failure, factors affecting strength of tension

members, angles under tension, design of tension members.(Topics related to design and detaling of beam

through class room teaching mode and practice mode )

(B) Compression members: Possible failure modes, classification of crosssection, behavior of

compression members, Effective length, and radius of gyration and slenderness of compression

members, Allowable stresses in compression, Design of axially loaded compression members, built up

compression members, Laced and Battened columns. Design of column base, slab base, and gustted base:

Design and detailing of one way and two way slabs, doglegged and cantilever staircase and circular slab,

Introduction to flat slab concept (no design). (Most of the topics will be through class room teaching mode

and practice mode and project mode)

MODULE-III (20 Hrs):

(A)Beams: Beam types, section classifications, lateral stability of beams, Allowable stress in bending, Shear

and Bearing stresses, Effective length of compression flange, Laterally supported and unsupported beams,

Design of built up beams and plate girders (Most of the topics will be through class room mode and practice

mode and project mode)

(B) Roof trusses : Types of trusses, Economical spacing of roof trusses, loads on roof trusses, Estimation of

wind load on roof trusses as per IS : 875. Design of members of roof truss and joints, Design of angle and I

purlins

(Most of the topics will be through class room mode and practice mode and project mode)

Text Books:

1. Design of steel structures by limit state Method as per IS: 800-2007 –S.S. Bhavikatti ,IK International Publishing

House, Bangalore –560 001

2. Design of Steel structures –N. Subramanian, Oxford University Press

3. Design of steel structures in limit state method by S.K. Duggal

S.

No.


Module I Theory Practice video Project

a) Basic Principles: Characteristic strength, characteristic

loads, design values, partial safety factors.

CRT 2 0 0

0

b) Different types of rolled steel sections available

to be used in steel structures.

CRT 4 0

0 0

c) Bolted connections: Types of bolts, Advantages and

disadvantages of bolted connections, types of bolted

connection, Failure of bolted joint, Design strength of bolts,

Analysis and design of bolted joints subjected to axial load,

Analysis and design of bearing bolts subjected to eccentric

load

CRT AND

PRA

8 6 0 0

d) Welded Connections: Advantages of welding, Types and

properties of welds, Types of joints, specifications Design

of welded joints subjected to axial load, Eccentric welded

connections.

CRT AND

PRA

4 6 0

Module II Sub total (30 hours ) 18 12 0 0

d) Tension members: Types of tension members, modes of

failure, factors affecting strength of tension members,

angles under tension, design of tension members.

CRT AND

PRA,

Video,

Project

Vedio (Block

shear

failure, slot

weld, plug

weld)

Project(Lace

d column, batten

colum,

beam–

column joint

with Staad-

Pro and

AUTO-CAD)

8 6 1

0

e)

Compression members: Possible failure modes,

classification of cross-

section, behavior of compression members, Effective

length, and radius of gyration and slenderness of

compression members, Allowable stresses in compression,

Design of axially loaded compression members, built up compression members, Laced and Battened columns.

Columns: Short columns under axial load with lateral ties

and helical reinforcement, short column under uniaxial

bending, slender columns. Detailing of axial and

eccentrically loaded columns

CRT AND

PRA, Project

8 6 6

0

f) Design of column base, slab base, and gusseted base CRT AND

PRA

Manually

proto type

modelling

6 5 2

Module III Sub total (40 hours ) 24 17 9 40

g) Beams: Beam types, section classifications, lateral stability of

beams, Allowable stress in bending, Shear and Bearing

stresses, Effective length of compression flange, Laterally

supported and unsupported beams, Design of built up beams

and plate girders.

CRT , PRA 3 2 0

0

h) Roof trusses : Types of trusses, Economical spacing of roof

trusses, loads on roof trusses, Estimation of wind load on roof

trusses as per IS : 875. Design of members of roof truss and

joints, Design of angle and I purlins CRT ,PRA

Design of

purlin by

using

Staad-Pro

Manually

proto-type of

steel roof

truss

3 1 0 0

Sub total (20 hours ) 6 3 0 9

PECE 4201 CONSTRUCTION PLANNING & PROJECT MANAGEMENT (3-0-0) CREDITS: 3

Course Objectives:

1. To introduce the basic concepts project management techniques related to civil engineering works.

2. To bring awareness of work break down structure of different civil engineering works and enable the student to

develop a CPM / PERT network.

3. To make the student understand the concept of critical path and its significance in construction project management.

4. To make the student understand the functional aspects of different construction equipment, their selection and

maintenance aspects of the same.

5. To apprise the student on the costs involved in running of various construction equipment and the economic life of

the equipment.

6. To educate the student on the process of tender preparation and the process involved in bidding. 7. To make the student aware of the various types of contracts and the contract conditions to be fulfilled by the

contractor.

8. To introduce the aspects related to settlement of disputes in contract execution.

Course Objectives: At the end of the course the students will be

1. able to develop a CPM / PERT network and evaluate the critical path for execution of the project and arrive at the

time of completion of the project.

2. able to select equipment for specific project,

3. able to decide between owning and hiring of equipment in a project

4. able to prepare a tender notice, and also follow the contract conditions and the consequences of deviation from the contract agreement.

MODULE-I: Project Management Technique (15 4Hrs)

(A) Introduction to PERT and CPM: Origin of PERT and CPM, Planning, Scheduling and Controlling - Bar Charts, Milestone Charts, Weaknesses in Bar Charts.

(B) PERT and CPM Networks Comparison, Event,Activity, Rules for drawing networks, numbering events - Fulkerson’s law - Dummy

activities, Time Estimates - Expected time, Earliest allowable occurrence time, Latest allowable occurrence time. Slack, Project duration Probability of completion, Start and Finish time estimates, Floats, Project Scheduling,

Critical and sub-critical path.

MODULE-II : Planning and Selection of Construction Equipment (12Hrs)

(C) Planning and Selection of Equipment Construction Equipment, Classification, Standard and Special Equipment, Selection of equipment. Cost of owning and operation, Economic life.

(D) Different Categories of Equipment Description, operation and maintenance of the following categories of equipment:

(i) Hauling equipment,

(ii) Earth moving equipment,

(iii) Hoisting equipment,

(iv) Pumping & dewatering equipment,

(v) Pile driving equipment and

(vi) Tar & bitumen equipment

MODULE - III : Contracts & Tendering process (12Hrs)

(E) Contracts Element of contract, Types of contract- Lumpsum contract, Lumpsum and scheduled contract, Item rate contract,

Sub-contracts, Joint ventures, Offer acceptance and consideration, valid contract, department execution, Muster

roll, Form 21, Piece work agreement form, work order, Contract system with tenders. Some Important definitions – Contract, Contractor, Quotation, Earnest Money, Security money.

(F) Tendering Process Definition, Tender notice, Tender form, Bidding procedure, irregularities in bidding, Award of work, Disputes

and claim settlement. Arbitration, Text Books: 1) PERT & CPM – L.S. Srinath

2) Construction Planning – P. Deodhar

3) Construction Planning – U.K. Srivastava

Module I

S.

No.


Module - I Project Management Technique (15Hrs) Theory Practice Project

Introduction to PERT and CPM

a) Origin of PERT and CPM, Planning, Scheduling and Controlling - Bar Charts, Milestone Charts, Weaknesses in Bar Charts.

CRT & Practice

2 +1

(Brain

Storming)

2 0

PERT and CPM Networks

b)

Comparison, Event, Activity, Rules for drawing networks,

numbering events - Fulkerson’s law - Dummy activities, Time

Estimates - Expected time, Earliest allowable occurrence time,

Latest allowable occurrence time. Slack, Project duration

Probability of completion, Start and Finish time estimates,

Floats, Project Scheduling, Critical and sub-critical path.

CRT &

Project 4 2 4

Module - II Planning and Selection of Construction Equipment (12 Hrs) Sub-

total 6 +1 4 4

Planning and Selection of equipment

c)

Construction Equipment, Classification, Standard and Special

Equipment, Selection of equipment. Cost of owning and

operation, Economic life.

CRT &

Practice 3 2 0

Different categories of equipment 5 (Student Presentati

ons)

d) Description, operation and maintenance of the following

categories of equipment CRT &

Presentation 2 0

Module - III Contracts & Tendering process (12 Hrs) Sub-total 5 7 0

Contracts

e)

Element of contract, Types of contract- Lumpsum contract,

Lumpsum and scheduled contract, Item rate contract, Sub-

contracts, Joint ventures, Offer acceptance and consideration,

valid contract, department execution, Muster roll, Form 21, Piece work agreement form, work order, Contract system with

tenders. Some Important definitions - Contract, Contractor,

Quotation, Earnest Money, Security money.

CRT 4 0 0

Tenders

f)

Definition, Tender notice, Tender form, Bidding procedure,

irregularities in bidding, Award of work, Disputes and claim

settlement. Arbitration.

CRT &

Project 4 0 4

Sub-total 8 0 4

Total 19 + 1 11 8

Evaluation: Through Tests, Assignments, Presentations and projects.

1. Module - I will be assessed through the projects on bar charts and networking process both manually and through

the usage of MS Project in addition to online test.

2. Module - II will be assessed through the presentations made by the students both in a group and individually.

3. Module - III will be assessed through 2 Projects and one conventional test.

4. Attendance and Assignments will also add to the evaluation.

5. The students will be divided in to two major groups one representing the owner and the other representing the

contractor for the purpose of assigning project. The projects will be so given that all the students represent both

the owner and the contractor.

MECHANICAL ENGINEERING

PCME4101 HEAT TRANSFER (Credits: 4)

Course Objectives:

1. To understand the fundamentals of heat transfer mechanisms in fluids and solids and their applications

in various heat transfer equipment in process industries

Course outcome :

On successful completion of this course, students will be able to:

1.Ability to understand and solve conduction, convection and radiation problems

2.Ability to design and analyse the performance of heat exchangers and evaporators

3. Ability to design and analyse reactor heating and cooling systems problems.

Module: I (20 Hours)

Introduction to conduction heat transfer, Fourier’s law of conduction, thermal conduction equation – derivation

in Cartesian, Cylindrical and Spherical coordinates. One dimensional steady state conduction in plane wall and

composite wall. Thermal contact resistance variable conductivity, thermal resistance, electrical analogy, radial

systems – cylinder, sphere. Overall heat transfer coefficients, critical thickness of insulation. Heat generation in

plane wall, cylinder and sphere. The heat diffusion equation. One dimensional steady state conduction with and

without heat generation. The plane wall – Radial system. Heat Transfer from extended surfaces – effectiveness –

efficiency. Insulation – critical thickness. Transient conduction – the lumped capacitance method – semi-infinite

solid. Steady state conduction in two dimensions, conduction shape factor, numerical method of analysis.

Unsteady state conduction – lumped heat capacity systems, significance of Biot and Fourier numbers, transient

heat flow in a semi-infinite solid, use of Heisler and Grober charts.

Module: II (15 Hours) Energy equation – thermal boundary layer. Forced convection – Practical correlations –

flow over surfaces internal flow. Natural convection, combined forced and free convection – combined

convection and radiation in flows. Review of hydrodynamics and thermal boundary layer, significance of non-

dimensional numbers in connection. Dimensional analysis for free and forced convection. Forced Convection –

heat transfer over a flat plate, flow through pipes, use of empirical relations. Free Convection – heat transfer from

vertical, horizontal and inclined surfaces.

Module: III (15 Hours)

Radiative heat exchange between surfaces – radiation shape factor – reradiating surfaces. Radiation in gases.

Boiling – Pool and flow boiling, correlations. Condensation – modes and mechanisms – Correlations and

problems

Condensation and Boiling processes. Radiation – nature of thermal radiation, black body concepts, gray body,

radiation shape factor, relation between shape factors, radiation heat transfer between two surfaces. Electrical

analogy, Re-radiating surface, radiation shields.

Types of heat exchangers, overall heat transfer coefficients, LMTD and NTU methods, fouling factor. Design

factors – problems in heat exchangers, effectiveness.

Text Books:

1. Holman J.P., ‘Heat andMass Transfer’, Tata McGraw Hill, 8th Ed., 1989.

2. Sachdeva, ‘Heat and Mass Transfer’, Wiley Eastern, 1986.

References

1. Heat and Mass Transfer – R.K. Rajput – S.Chand & Company Ltd

2. Heat and Mass Transfer – D.S.Kumar / S.K.Kataria& Sons

3. Heat and Mass Transfer-Kondandaraman

Module I

S.

No.


Conduction: Theory Practice video Project

1 Introduction to conduction heat transfer, Fourier’s law of

conduction, general heat conduction equation – derivation

in Cartesian, Cylindrical and Spherical coordinates.

CRT

2 1 0 0

2 One dimensional steady state conduction in plane wall and

composite wall. Thermal contact resistance variable

conductivity, thermal resistance, electrical analogy, radial

systems – cylinder, sphere.

CRT, PRA

& ANSYS

Simulation

2 3 0 0

3 Overall heat transfer coefficients, critical thickness of

insulation. Heat generation in plane wall, cylinder and

sphere.

CRT

2 0 0 0

4 The heat diffusion equation. One dimensional steady state

conduction with and without heat generation.

CRT 2 0 0 0

5 The plane wall – Radial system. Heat Transfer from

extended surfaces – effectiveness – efficiency. Insulation –

critical thickness.

CRT

2 0 0 0

6 Transient conduction – the lumped capacitance method –

semi-infinite solid. Steady state conduction in two

dimensions, conduction shape factor, numerical method of

analysis.

CRT

3 0 0 0

7 Unsteady state conduction – lumped heat capacity systems,

significance of Biot and Fourier numbers, transient heat

flow in a semi-infinite solid, use of Heisler and Grober

charts

CRT

3 0 0 0

Sub total 20 16 4 0 0

Module II

S.

No.


Convection: Theory Practice video Project

1 Energy equation – thermal boundary layer. Forced

convection – Practical correlations – flow over surfaces

internal flow

CRT

2 0 0 0

2 Natural convection, combined forced and free convection –

combined convection and radiation in flows

CRT, PRA

& ANSYS Simulation

2 3 0 0

3 Review of hydrodynamics and thermal boundary layer,

significance of non-dimensional numbers in connection,

Dimensional analysis for free and forced convection

CRT

3 0 0 0

4 Forced Convection – heat transfer over a flat plate, flow

through pipes, use of empirical relations. Free Convection –

heat transfer from vertical, horizontal and inclined surfaces.

CRT, PRA

& ANSYS

Simulation

2 3 0 0

Sub total 15 9 6 0 0

Module III

S.

No. Topic Pedagogy Details Instructional Hrs

Radiation: Theory Practice video Project

1 Radiative heat exchange between surfaces – radiation shape

factor – reradiating surfaces CRT &

PRA

0 2 0 0

2 Radiation in gases. Boiling – Pool and flow boiling,

correlations CRT

&PRA

0 2 0 0

3 Condensation – modes and mechanisms – Correlations and

problems

CRT 2 0 0 0

4 Condensation and Boiling processes. Radiation – nature of

thermal radiation, black body concepts

CRT 2 0 0 0

Gray body, radiation shape factor, relation between shape

factors, radiation heat transfer between two surfaces.

Electrical analogy, Re-radiating surface, radiation shields.

CRT

3 0 0 0

1 Types of heat exchangers, overall heat transfer coefficients,

LMTD and NTU methods, fouling factor.

CRT &

PPT

2 1 0

0

2 Design factors – problems in heat exchangers, effectiveness. CRT 1 0 0 0

Sub Total 15 10 5 0 0

PCME4102 OPTIMIZATION TECHNIQUES (Credits: 4)

Course Objectives:

1. To introduce the fundamental concepts of Optimization Techniques

2. To understand the theory of optimization methods and algorithms developed for solving various types of optimization problems.

3. Introduce methods of optimization to engineering students, including linear programming, network flow algorithms,

integer programming, interior point methods, quadratic programming, and nonlinear programming methods

4. To provide the concepts of various classical and modern methods for constrained problems in both single and

multivariable.

Course outcome:

students are able to understand about

1) Basic theoretical principles in optimization;

(2) Formulation of optimization models;

(3) To solve various constrained and unconstrained problems in single variable as well as multivariable

Module I: Introduction to Optimization (15 Hrs)

(A) Introduction: Need and scope of optimization. Historical development, statement of optimization problem

- Objective function and its surface, Design variables, constraints and constraint surface. Classification of

optimization problems various functions, Continuous, discontinuous and discrete functions, Monotonic, Non-

monotonic and unimodal functional behavior.

(B) Classical optimization techniques: Differential calculus method, multivariable optimization by method of

constrained variation and Lagrangean multipliers (generalized problem), Khun - Tucker conditions for

optimality.

Module II: Linear Programming (15 Hrs)

(C) Linear Programming - Graphical Method: Definition, Characteristics of linear and Steps

involved, Redundant constraints - Application of L.P. to engineering problems.

(D) Linear Programming - Simplex method: Definition, Basics of Simplex Method, Slack, Surplus, Decision

and Artificial variables - Significance of these variables and their application in Simplex method. Two Phase

method, Big M method. Duality in linear progrmming.

(E) Transportation Problem & Assignment Problems: Transportation Problem -Definition, Basic feasible

solution, steps involved in solution of transport problem. Assignment Problem - Basic differences between

transportation and Assignment problems - Balanced and unbalanced Assignment Problems.

Module III: (15 Hrs)

(F) Non-linear Programming: Definition, Unconstrained minimization – Fibonacci, Golden section, Quadratic

and Cubic interpolation methods for one-dimensional minimization and univariate method, Powel’s, Newton’s

and Davidson, Fletchar and Powel’s method for multivariable optimization. Conditions for a function to be

convex and concave. Constrained minimization - Cutting plane method.

(G) Dynamic Programming: Meaning, Basic Principles of Dynamic programming, Simple examples of

dynamic programming.

Text books:

1) Optimizaion theory and Applications - Rao, S.S. - Wiely Eastern Ltd., New Delhi

2) Optimmum structural Design, theory and applications - Edited by R.H. Gallegher and O.C. Zienkiwiez. John Wiley and

Sons Newyork

Module I

S.

No.


Introduction to Optimization Theory Practice video Project

1 Introduction: Need and scope of optimization. Historical

development

CRT & PPT 1 0 0 0

2 Statement of optimization problem - Objective function

and its surface, Design variables, constraints and

constraint surface

CRT & PPT

&P RA

2 1 0 0

3 Classification of optimization problems various functions,

Continuous, discontinuous and discrete functions,

Monotonic, Non-monotonic and unimodal functional

behavior.

CRT &

PPT&PRA

3 1 0 0

4 Classical optimization techniques: Differential calculus

method,

CRT & PPT 2 0 0 0

5 Multivariable optimization by method of constrained

variation and Lagrangean multipliers (generalized

problem), Khun - Tucker conditions for optimality

CRT & PPT

& PRA

4 1 0 0

Module II Sub total 15 12 3 0 0

1 Graphical Method: Definition, Characteristics of linear

and Steps involved, Redundant constraints - Application of

L.P. to engineering problems.

CRT & PRA

1 1 0 0

2 Simplex method: Definition, Basics of Simplex Method,

Slack, Surplus, Decision and Artificial variables -

Significance of these variables and their application in

Simplex method.

CRT & PRA

2 1 0 0

3 Two Phase method, Big M method. Duality in linear

progrmming

CRT, PRA

& ANSYS

Simulation

1 3 0 0

4 Transportation Problem: Definition, Basic feasible

solution, steps involved in solution of transport problem

CRT 3 0 0 0

5 Assignment Problem: Basic differences between

transportation and Assignment problems - Balanced and

unbalanced Assignment Problems.

CRT

3 0 0 0

Sub total 15 10 5 0 0

Module III

S.

No.

Topic Pedago

gy

Detail

s

Instructional Hrs


1 Non-linear Programming: Definition, Unconstrained minimization –

Fibonacci, Golden section, Quadratic and Cubic interpolation

methods for one-dimensional minimization and univariate method

CRT

3 1 0 0

2 Powel’s, Newton’s and Davidson, Fletchar and Powel’s method for

multivariable optimization

CRT 3 1 0 0

3 Conditions for a function to be convex and concave. Constrained

minimization - Cutting plane method.

CRT 3 0 0 0

4 Dynamic Programming: Meaning, Basic Principles of Dynamic

programming, Simple examples of dynamic programming

CRT 3 1 0 0

Sub total 15 12 3 0 0

PCME4201 PRODUCT DESIGN AND PRODUCT TOOLING (Credits: 4)

Course Objectives: To introduce the objectives of product design and the requirements of a good product design. To expose the students to

different design principles like designing for function, production, installation and handling, maintenance, packaging etc.

Course outcome :

The student will be able to

1.Apply the principles of product design to modify existing engineering systems or to develop new artifacts.

2.Design a system taking into consideration the concepts of ease of production, maintenance, handling, installation etc.

Module - I (16 Hrs)

Product design considerations, product planning, product development, value analysis, product specification,

Role of computer in product design.

Product design for sand casting: design of gating system, objectives of gating design, and risering, gating ratio,

choke area.

Module - II (16 Hrs)

Forging design: allowances die design for drop forging, design of flash and gutter, upset forging die design, drop

forging die design.

Sheet metal working: Design consideration for shearing, blanking, punching, deep drawing operation, Die design

for sheet metal operations, progressive and compound die, strippers, stops, strip layout.

Module - III (18 hours)

Design of jigs and fixtures, principle of location and clamping, clamping methods, locating methods, Drill Jig

bushing, Indexing type drilling Jig. Design of single point cutting tool, broach and form tool, Design of limit

gauges, Process planning– selection of processes, machines and tools. Design of sequence of operations, Time &

cost estimation, Tooling design for turret lathe and automats.

Text Books: 1. Fundamentals of Tool Engineering design, S.K. Basu, S.N. Mukherjee, R. Mishra, Oxford & IBH Publishing co.

2. Manufacturing Technology, P.N. Rao, Tata McGraw Hill

3. A Textbook of Production Engineering, P.C. Sharma, S. Chand & Co

Reference Books: 1. Product Design & Manufacturing, A K Chitale, R C Gupta, Eastern Economy Edition, PHI. 2. Product Design & Development, Karl T Ulrich, Steven D Eppinger, Anita Goyal, McGraw Hill

3. Technology of Machine Tools, Krar, Gill, Smid, Tata Mc Graw Hill

4. Jigs & Fixture Design, Edward G Hoffman, Cengae Learning.

Module I

S.

No.



1 Product design considerations, product planning,

product development

CRT & Video

presentation

4 1 0 0

2 Value analysis, product specification, Role of

computer in product design.

CRT, PRA 4 1 0 0

3 Product design for sand casting: design of gating

system, objectives of gating design, and risering,

gating ratio, choke area.

CRT

4 2 0 0

Module II Sub total 16 12 4 0 0

1 Forging design: allowances die design for drop

forging, design of flash and gutter

CRT 3 0 0 0

2 Upset forging die design, drop forging die design. CRT & video 3 0 1 0

3 Sheet metal working: Design consideration for

shearing, blanking, punching, deep drawing

operation

CRT & video

3 0 1 0

4 Die design for sheet metal operations, progressive

and compound die, strippers, stops, strip layout

CRT & video 4 0 1 0

Sub total 16 13 0 3 0

1 Design of jigs and fixtures, principle of location and

clamping, clamping methods, locating methods CRT & PRA 3 1 0 0

2 Drill Jig bushing, Indexing type drilling Jig. CRT &PRA 3 1 0 0

3 Design of single point cutting tool, broach and form

tool

CRT & PRA 2 1 0 0

4 Design of limit gauges CRT 1 0 0 0

5 Process planning– selection of processes, machines

and tools

CRT &

PPT&ViDEO

2 1 0

0

6 Design of sequence of operations, time & cost

estimation

CRT 1 0 0 0

7 Tooling design for turret lathe and automats CRT & PRA 1 1 0 0

Sub Total 18 13 5 0 0

PLME4111 HEAT TRANSFER & REFRIGERATION AND AIR CONDITIONING

LABORATORY (Credits: 2)

Heat Transfer: 1. Determination of Thermal conductivity of composite slab

2. Determination of heat transfer coefficient in natural convention 3. Determination of surface emissivity

4. Performance test on parallel flow and counter flow heat exchanger

5. Efficiency and effectiveness of Pin fins

6. Verification of Stefan Boltzman’s law. 7. Determination of heat transfer coefficient in forced convention

8. Determination of Critical heat flux during boiling heat transfer

Refrigeration and Air Conditioning: 1. Determination of C.O. P on vapour compression system

2. Determination of C.O. P on vapour absorption system 3. Performance test on Air conditioning test rig (Window type)

4. Performance test on Air conditioning test rig (Duct type)

5. Determination of C.O.P of ice plant

6. Performance analysis in an experimental cooling tower

COMPUTERSCIENCE & ENGINEERING

PCCS4102 DATABASE DESIGN & IMPLEMENTATION

Course Nature: Theory + Practice + Project Credit: 8

Course Objectives:

1. Understand the role of a database management system in an organization.

2. Understand the role of the database administrator

3. Understand basic database concepts, including the structure and operation of the relational data model.

4. Construct simple and moderately advanced database queries using Structured Query Language (SQL)

5. Understand and successfully apply logical database design principles, including E-R diagrams and database normalization

Course Outcomes:


1. Master the basic concepts and appreciate the applications of database systems.

2. Master the basics of SQL and construct queries using SQL)

3. Be familiar with a commercial relational database system (Oracle, my sql ,sql server)by writing SQL using the

system

4. Mater of logical design of databases using the E‐R method and normalization approach.

5. Student will be master in creating a database project including database connectivity.

Module-I (08 Hrs): Data base concepts and uses.

(A) Data modelling using the E_R Model:

E-R model : Entity types, Entity sets, Weak entity types Attributes, Keys

Relationship: Relationship type, cardinality ratio, partial participation, total participation

Mapping: Mapping E-R model into relational model

(B) Constraints: Varieties of constraints and their applications. . (All the topics will be through PPT,Case

studies )

Module-II (09 Hrs) : Database programming

(C) Basic sql queries: Creation of Database, Creation of tables, Imposing keys, Imposing constraints,DDL

commands.DML commands . (Topics related sql basic queries will be taught through practice mode)

(D) Join: Variety of joins (inner join, Outer join with full concept. . (All the topics will be through PPT as

well as practices )

(E) Implementing aggregate functions like max, mean, count and various clauses like group by, having etc

etc…

(All the topics will be through practices )

MODULE-III (12 Hrs): Additional database programming:

(F) Stored procedures: Writing stored procedures , Executing sub queries, Using functions, Creating views,

Implementing triggers (All the topics will be through practices )

(G) Databse administration (Giving authorisation),Database connectivity programming(JDBC,ODBC)

(H) Introduction to PL/SQL :Use of loops ,arrays, strings

Text Books:

1. Fundamentals of Database Systems by Ramez Elmasri, S B Navathe pearson publications

2. Databse systems by Thomas Connolly and Carolyn Begg

Module I

S.

No.



Data modelling using the E_R Model

1 E-R model : Entity types, Entity sets, Weak

entity types Attributes, Keys

presentation 2

2 Relationship: Relationship type,

cardinality ratio, partial participation,

total participation

Presentation

and practice

1 1

3 Mapping: Mapping E-R model into

relational model

Presentation

and practice

1 1

4 Constraints: Varieties of constraints and their applications

Presentation 2

Module II Sub Total 6 2

5 Creation of Database, Creation of tables,

Imposing keys,

practice 2

6 Imposing constraints practice 1

7 DDL commands.DML commands practice 1

8 Inner join &Outer join, Normalisation Presntaion with

practice

2 1

9 Aggregate functions practice 2

Module III Sub Total 2 7

10 Writing stored procedures Practice 2

11 Executing sub queries Practice 1

12 Using functions Practice 2

13 Creating views, Implementing triggers Practice 2

14 Database connectivity

programming(JDBC,ODBC), Databse

administration (Giving authorisation

practice

3

15 Introduction to PL/SQL :Use of

loops ,arrays, strings

2

Sub Total 12

Note: The student has to do a database project, based on any topic, which should be including all the concept covered in

the said syllabus.

This project work carries 6 credits. The instructor has to review the project work in all the stages and has to maintain the

progress report.

The project work has to go simultaneously along with the class work or beyond the class hours and the weekly work

progress report should be close to the concepts covered during the class hours.(40 ) hours minimum.

ELECTRONICS & COMMUNICATION ENGINEERING

PCEC4101 MICROWAVE AND RADAR ENGINEERING

Credits: 04 Hours: [54] Course Objectives:

The objectives of this subject are

1. To introduce the student to the basics of Microwave and Radar.

2. To focus on the fundamentals of microwave theory and techniques and its selected applications

Course Outcomes:

Upon successful completion of this subject, students should be able to:

1. Distinguish Electromagnetic wave propagation through reflections from voltage and current transmission.

2. Analyze performance of microwave components from field point of view.

3. Maintain microwave components and Set up of microwave bench for optimum operation.

4. Maintain microwave semiconductor devices used to realized amplifiers and oscillators.

5. Maintain RADAR system as microwave application.

MODULE - I (24Hours)

Transmission lines: The Lumped-Element Circuit model for a Transmission line. Wave propagation,

FieldAnalysis of two wire & Co-ax Transmission Lines.Terminated transmission line. Reflection coefficient,

scattering matrix, Transmission line problems ,Single Stub and Double Stub matching,problems using Smith

Chart.

Rectangular and Cylindrical waveguide: Design & analysis to support various modes. Field solution for TE

and TM modes, Field patterns of power flow through waveguide. Attenuation due to conductor and dielectric

losses

MODULE - II (14Hours)

Power Dividers and Couplers: Basic Properties, T -Junction Power Divider, Wilkinson Power divider,

Waveguide Directional Couplers, Ferrite Isolator. Rectangular Cavities Resonator, Resonant frequencies of

Cavity Supporting dominant mode only, Dielectric resonator. Strip line and micro strip. Klystron and Reflex

Klystron: klystron: construction and operation only Reflex klystron: Principle of Operation, Velocity

Modulation, Output Power and Efficiency

Multicavity Magnetron: Principle of Operation, Rotating Field,Π-Mode of Operation, Frequency of Oscillation,

Output Power and Efficiency. TWT - Principle of Operation as an amplifier

MODULE - III (16Hours)

Microwave Transistors: Physical structure, principles operation, applications of microwave bipolar transistor

and HBT.Operation and characteristic of Tunnel diode.Gunn Oscillator Principle and performance.Microwave

hazards.

Introduction to Radar: Basic radar, radar block diagram, radar frequencies & applications, Radar Indicators.

RADAR Equation: Detection of signal in noise, receiver noise and SNR, probability of detection and

false alarm, integration of radar pulses, radar cross section of targets, PRF, system losses.

MTI RADAR: Introduction, delay line cancellers, Doppler filter banks, limitation of MTI, Staggered

PRF, Pulse Doppler radar, Tacking by radar

Text Books:

1. Microwave Engineering by D. M. Pozor, 2nd Edition, John Willy & Sons.

2. Microwave Device and Circuit, 3rd Edition, Sammuel Y, Liao, Perason 72

3. Introduction to RADAR systems by Merrill I. Skolnik, 3rd edition, Tata McGraw Hill.

Reference Book:

1. Principles of Microwave Engineering, Reich, Oudong and Others.

2. Elements of Engineering Electromagnetics, 6th Edition, N. N. Rao, Pearson Education,

3. Electromagnetic Waves and Radiating Systems, 2nd Edition, E.C. Jordan and K.G. Balman, Pearson Education,

New Delhi.

4. Engineering Electromagnetic, 7th Edition, William H. Hayt, Tata McGraw Hill Publishing Company Ltd., New Delhi

5. RADAR Principles, Technology, Application by Byron Edde, 1st edition, Pearson, 2004.

6. Understanding RADAR system by Simon Kingsley, Shaun Quegan, Standard publication

PEDAGOGY

S.

No.

Topic Pedagogy Deta

ils

Instructional Hours

MODULE-I (24 Hours) Theory Practice video Project

1 Introduction, history and application of

Microwave engineering. Review of Plane wave

propagation. Lumped element circuit model for a

transmission line.

CRT 1 0 1 0

2 Wave propagation in a transmission line and

Lossless transmission line. Reflection and

transmission coefficient. Standing wave ratio. Line

impedance and admittance. Characteristic

impedance.

CRT 2 0 1 0

3 Field analysis of co-axial transmission lines.

Development of Telegraphic equation.

Propagation constant, Impedance, and power flow

for lossless co-axial line.

CRT 2 0 0 0

4 R, L, C and G parameters of co-ax and two wire

transmission lines

CRT 2 0 0 0

5 Terminated loss less transmission line.

Transmission line as circuit element. Microwave

co-axial connectors.

CRT 2 0 0 0

6 Introduction to graphical solution of transmission

line problem. Principle of Smith Chart

construction.

CRT &

Project

2 0 0 0

7 Solution of transmission line problems using Smith

Chart.

CRT 1 0 0 0

8 Single Stub and Double Stub matching. Low loss

transmission line.

CRT 1 0 0 0

9 Introduction to wave guide. Rectangular wave

guide.

CRT 1 0 0 0

10 Field solution for TE modes. CRT 1 0 0 0

11 Field solution for TM modes. CRT 1 0 0 0

12 Field solution for TE and TM modes. CRT 1 0 0 0

13 Field patterns and power flow through wave

guide.

CRT 1 0 0 0

14 Attenuation due to conductor and dielectric losses

in wave guide.

CRT 1 0 0 0

15 Design of Rectangular waveguide to support

Dominant TE10

CRT 1 0 0 0

16 TEM mode in coax line. Cylindrical wave guide

(Dominant mode).

CRT 1 0 0 0

17 Design of Cylindrical waveguide to support

dominant TE11 mode

CRT &

Project

1 0 0 0

18 Rectangular Waveguide Cavities. Resonant

frequencies and of cavity supporting. (Dominant

mode only)

CRT 1 0 0 0

19 Excitation of waveguide and Resonators(principle

only)

CRT 1 0 0 0

Sub Total 24 0 0 0

S.

No. Topic Pedago

gy

Deta

ils

Instructional Hours

MODULE-II (14 Hours) Theory Practice video Project

20 Basic properties of Power dividers and Directional

couplers. CRT 1 0 0 0

21 The T-junction power Divider. CRT 1 0 0 0

22 Waveguide Directional Couplers (Calculation of S

matrix of Directional couplers). CRT 1 0 0 0

23 Fixed and Precision Variable Attenuator. Ferrite

Isolator (Principle of Operation). CRT 2 0 0 0

24 Rectangular Cavities Resonator, Resonant frequencies

of Cavity Supporting dominant mode only,

CRT &

Project 2 0 0 0

25 Dielectric resonator. Strip line and micro strip. CRT 1 0 0 0

26 Reflex Klystron: Velocity Modulation, Electronic

Admittance CRT 1 0 0 0

27 Power Output and Frequency vs. Reflector Voltage.

Square wave modulation CRT 1 0 0 0

28 Multicavity Magnetron: Principle of Operation,

Rotating Field CRT 1 0 0 0

29 ∏-mode of Operation, Frequency of Oscillation. CRT 1 0 0 0

30 TWT - Principle of Operation as an amplifier CRT 2 0 0 0

MODULE-III (16 Hours) Sub Total 14 0 0 0

31 Microwave Transistors: Physical structure, principles

operation, applications of microwave bipolar transistor

and

CRT

2 0 0

0

32 HBTOperation and characteristic of Tunnel diode. CRT 1 0 0 0

33 Gunn Oscillator Principle and performance. 1

34 Microwave hazards CRT 1 0 0 0

35 Radar Block diagram& radar Equation CRT 2 0 0 0

36 Radar Frequencies& Information available from Radar

Echo, Prediction, Minimum detectable signal, Receiver

Noise, SNR

CRT

2 0 0

0

37 Probabilities of detection & False Alarms CRT 1 0 0 0

38 Radar cross section of Targets &Transmitted

power,Pulse repetition frequency &Antenna parameters

CRT 2 0 0

0

39 System losses & Propagation effect CRT 2 0 0 0

40 MTI radar CRT 1 0 0 0

41 Pulse Doppler radar CRT 1 0 0 0

Sub Total 16 0 0 0

PCEC4201 SATELLITE AND OPTICAL COMMUNICATION

Credits: 04 Hours [50]

Course Objective:

The objectives of this subject are to:

The recent development and trends in optical fibers

The satellite link design and multiple access

Optical fiber construction techniques and losses of it.

Course Outcome:

Upon successful completion of this subject, students should be able to:

Apply their knowledge to the analysis and design of satellite communication systems and the design of certain

components for the system. Understand of the theory of modern optical communication systems.

Apply their knowledge to the design of optical communications systems at a conceptual level

Understand different optical sources available.

MODULE-I (17Hours)

Orbital Mechanics: Determination of Orbital Parameters, look angle of a geostationary Satellite from

Earth. Launches and Launch Vehicle. Placing Satellite into Geo-stationary Orbit.

Satellite Subsystems: A brief Description of AOCS, TTC & M and Power System. Description of

Communication System –Transponders. Satellite Antennas: Basic Antennas Types and Relationship; Global

Beam Antenna, Satellite Antennas in Practice. Equipment Reliability & Space qualification. Redundancy.

Multiple Access: Comprehensive study on FDMA, TDMA and CDMA.

Satellite Link Design: Basic Transmission Theory, System Noise Temperature and G/T Ratio; G/T Ratio for

Earth Station. Design of Down Link. Up link Design. Satellite Communication Link Design Procedure. System

Design Example –Ku Band

Propagation Effects and Their Impact on Satellite: Earth Links: Attenuation, Depolarization,

Ionospheric&Tropospheric effects. Prediction of Rain Attenuation.

MODULE-II (17 Hours)

Optical Communication System: Major Elements of an optical fiber communication link. Optical fiber

attenuation as a function of wavelength.

Optical fiber: Refractive index profile of step Index and Graded Index Fibers. Light ray propagation

thorough Optical fiber. Total Internal Reflection. Numerical Aperture, Modal Concept. V number.

Electromagnetic Theory of wave Propagation thorough step index fiber Mode Theory for Circular

waveguide.Wave Equator Step Index fiber. Modes in step index fiber. Power flow in step index fiber.Graded

index fiber structure. Mono mode fiber

Fiber Materials: Fiber Fabrication : Double –Crucible Method. Cabling of Optical Fibers.Signal Degradation in

Optical Fiber:

Attenuation: Factors contributing to losses. Signal Distortion –Inter-and Intra Modal, CHoursomatic, Wave

guide and Polarization Dispersions. Pulse Broadening in SI &GI fibers.Km -Bandwidth Concept.

MODULE –III (16Hours)

Optical Sources : LED, Typical GaAlAs p-n junction double hetero-structure, Typical Spectral pattern,

Modulation of an LED. Laser diodes: Principle of Operation. Typical Constructional features Radiation Pattern.

Modulation of Laser diode , Typical Manufactures’ specifications of LED & LASER. Power

Lunching&Coupling: Source to fiber power launching, Coupling Power Calculation. Lensing Scheme for

improvement of coupling.Fiber-to-fiber Connectors Connector loss. Techniques of splicing .Splicing loss. Photo

Detectors : p-n , PIN and APD Photo detectors, Responsively and Bandwidth of diodes. Noise in PDs.

Equivalent Circuits, SNR.

Optical Receiver : Receiver Configuration Sensitivity and Bandwidth of Receiver Bit Error Rate.Trans

Impendence Preamplifier.Design of Fiber Optic link : Time Budget and Power Budget . Optical Amplifier, WDM

: Principle & Practice.

TEXT BOOKS:

1)Satellite Communication by T. Pratt, C. Bostian and J. Allnutt. 2nd Edition ,Joihn Wiley Co.

Selected Portion from Chapters 2,3,4,6,8,9 and 11.

2) Digital Communication with Satellite and Fiberoptic Application, HarlodKolimbins, PHI

3) Optical Fiber Communications by G. Keiser. 3rd Edition McGraw Hill Book Co.

4) Fiber Optic Communications Technology by D. K. Mynbaev& Lowell L. Scheiner –Pearson Education.

Reference Books:

1. Optical fibers and Fiber Optic communication systems by Subir Kumar Sarkar , Publication : S. Chand & Co.

2. Fiber Optic communications By Joseph C. Palais 4th Edition, Pearson Publication Asia.

3. Satellite Communication by Robert M. Gagliardi, CBS Publishers

4. Advanced Electric Communication System by Wayne Tomani, 6th Edition , Pearson Education

MODULE I [17 HOURS]

S.

No.

Topic Pedago

gy Details

Instructional Hours


01

Introduction to Subject: Orbital Mechanics: Determination of Orbital Parameters, look angle

of a geostationary Satellite from Earth. Launches

and Launch Vehicle. Placing Satellite into Geo-

stationary Orbit. Reference: T.PRATT:

CRT

Chalk

& Talk

and

PPT

4 0 0 0

02

Satellite Subsystems: A brief Description of

AOCS, TTC & M and Power System description

of Communication System –Transponders. Satellite

Antennas: Basic Antennas Types and

Relationship; Global Beam Antenna, Satellite

Antennas in Practice. Equipment Reliability &

Space qualification.Redundancy.MultipleAccess:

Comprehensive study on FDMA, TDMA and CDMA. Reference:T.PRATT, HarlodKolimbins, Robert M.

Gagliardi

CRT

Chalk

& Talk

, PPT

4 0 0 0

03

Satellite Link Design: Basic Transmission Theory,

System Noise Temperature and G/T Ratio; G/T Ratio

for Earth Station. Design of Down Link. Up link

Design. Satellite Communication Link Design

Procedure. System Design Example –Ku Band,

Propagation Effects and Their Impact on Satellite:

Earth Links: Attenuation, Depolarization,

Ionospheric&Tropospheric effects. Prediction of

Rain Attenuation. Reference: T.PRATT

CRT

Chalk

& Talk

, PPT

9 0 0 0

MODULE II [17 HOURS] Sub Total: 17 0 0 0 0

04

Key Topics: Optical Communication System:

Major Elements of an optical fiber communication

link.Optical fiber attenuation as a function of wavelength. Optical fiber: Refractive index profile

of step Index and Graded Index Fibers. Light ray

propagationthrough Optical fiber. Total Internal

Reflection. Numerical Aperture, Modal Concept. V

number. Reference: Keiser, Joseph C.Palais

CRT

Chalk

& Talk

, PPT

5 0 0 0

05

Key Topic

Electromagnetic Theory of wave Propagation

through step index fiber Mode Theory for Circular

waveguide. Wave Equator Step Index fiber. Modes in

step index fiber. Power flow in step index fiber.

Graded index fiber structure. Mono mode fiber

Reference: Keiser, Joseph C.Palais

CRT

&

BCRT

(Beyon

d CRT)

Chalk

& Talk

, PPT,

Industr

y visit

5 0 0 0

06

Fiber Materials: Fiber Fabrication:Double–Crucible Method. Cabling of Optical Fibers.Signal

Degradation in Optical Fiber:

Attenuation: Factors contributing to losses. Signal

Distortion –Inter-and Intra Modal, CHoursomatic,

Wave guide and Polarization Dispersions. Pulse

Broadening in SI & GI fibers. Km -Bandwidth

Concept.Reference: Keiser, Joseph C.Palais

CRT

Chalk

& Talk

, PPT

7 0 0 0

17 0 0 0

MODULEIII [16 Hours]

S.

No. Topic Pedago

gy

Details Instructional Hours


07

Optical Sources : LED, Typical GaAlAs p-n

junction double heterostructure, Typical Spectral

pattern, Modulation of an LED. Laser diodes:

Principle of Operation. Typical Constructional

features Radiation Pattern. Modulation of Laser

diode , Typical Manufactures’ specifications of

LED


CRT

Chalk

& Talk

, PPT

5 0 0 0

08

LASER. Power Lunching Coupling: Source to fiber

power launching, Coupling Power Calculation.

Lensing Scheme for improvement of coupling.

Fiber-to-fiber Connectors Connector loss.

Techniques of Splicing .Splicing loss. Photo

Detectors : p-n , PIN and APD Photo detectors,

Responsively and Bandwidth of diodes. Noise in

PDs. Equivalent Circuits.SNR

Reference : Keiser, Joseph C.Palais

CRT

Chalk

& Talk

, PPT

5 0 0 0

09

Optical Receiver: Receiver Configuration Sensitivity

and Bandwidth of Receiver Bit Error Rate.Trans-

Impendence Preamplifier. Design of Fiber Optic

link: Time Budget and Power Budget. Optical

Amplifier, WDM: Principle & Practice.


CRT

Chalk

& Talk

, PPT

6 0 0 0

Sub Total 16 0 0 0

PLEC4111 MICROWAVE AND ANTENNA LAB

Credits: 02 Hours: [42]

Course Objective:

The objectives of this laboratory are to

Introduce students to microwave systems, components and devices and develop an understanding of the microwave

circuit analysis technique,

Expose students to circuit design tools/ Software used in microwave engineering and introduce students to

microwave measurement techniques and instrumentation

Course Outcome:

Upon successful completion of laboratory, students should be able to:

1. Describe, analyse and design simple microwave circuits and devices e g matching circuits, couplers, antennas and

amplifiers.

2. Describe and coarsely design common systems such as radar and microwave transmission links.

3. Be able to apply analysis methods to determine circuit properties of passive/active microwave devices.

4. Know how to model and determine the performance characteristics of a microwave circuit or system using

computer aided design methods.

LIST OF EXPERIMENTS:

1. Introduction to microwave bench and components, Observe different signals output of the microwave

bench with GUNN oscillator and measure the frequency with frequency meter.

2. Study of the characteristics of a Reflex Klystron oscillator.

3. Plotting of Standing Wave Pattern along a transmission line when the line is open-circuited short-

circuited and terminated by a resistive load at the load end.

4. Experimental/Simulation Study of filter (LPF, HPF, BPF) response using HFSS.

5. Simulation study of Smith chart using HFSS.

6. Simulation study of Smith chart - Single and double stub matching using HFSS.

7. Input Impedance of a terminated coaxial line using shift in minima technique using HFSS.

8. Radiation Pattern of dipole antenna using HFSS

9. Radiation Pattern of folded dipole antenna using HFSS

10. Radiation Pattern of 3-element Yagi-Uda Antenna using HFSS

11. Beam width, gain and radiation pattern of a 3-element, 5-element and 7-element. Yagi-Uda antenna

Comparative- study using HFSS.

12. To simulate using HFSS :-

Dipole antenna by plotting its radiation pattern, measuring -3dB beam width, gain and return

loss.

Yagi antenna by plotting its radiation pattern, measuring -3dB beam width, gain and return loss.

Parabolic reflector antenna by plotting its radiation pattern, measuring -3dB beam width, gain

and return loss.

13. Radiation pattern, polarization, wavelength and frequency measurement of horn antenna by microwave

bench.

14. Measurement of wavelength, VSWR, reflection coefficient and transmission coefficient using a slotted

co-axial transmission line and a microwave generator

15. Study the characteristics of scattering parameters of circulator ,isolator, attenuator & directional coupler

16. Power division and coupling measurement analysis using HFSS

a. H-plane

b. E-plane

c. Magic tee junctions

ELECTRICAL ENGINEERING

PCEL 4101 Power System Operation & Control Credits: 04 Total Hrs: [50]

Course Objectives:

1. To introduce the concepts of optimization techniques used in power systems. 2. To introduce the basic governing systems for automatic generation and control.

3. To provide a solid foundation in mathematical and engineering fundamentals required to control the governing

system in turbine models.

4. To provide the knowledge of power system stability.

5. To provide the knowledge of reactive power flow control.

Course Outcomes:


1. Make Economic operation of power system and importance of LFC.

2. Solve problems (numerical problems at present) by using different problem models related to Economic load

despatch, reactive power control.

3. Discuss about thermal and hydro power plant operation in meeting the load demand optimally.

4. Discuss about single area load frequency control and two area load frequency control. 5. Apply their knowledge in PSOC for competitive exams like GATE,IES and PSUs etc.

MODULE-I (15 Hours)

Load Flow Studies: Network model formulation, Y bus formation(MATLAB) and singular matrix transformation,

Load flow problem, Gauss Seidel (GS) method, Newton-Raphson method (NR) (Polar, Rectangular form),

Decoupled, Fast Decoupled load flow and comparison(Chalk duster class room teaching). Concept of DC loads

flow.(Topics on Gauss Seidel (GS) method, Newton-Raphson method (NR) and Y bus formation will be

through classroom teaching and MATLAB & Power world simulator)

MODULE-II(20 Hours)

Economic System Operation: Generator operating cost:- input-output, Heat rate and IFC curve, Constraints in

operation, Coordinate equation, Exact coordinate equation, Bmn coefficients, transmission loss formula(Chalk

duster class room teaching), Economic operation with limited fuel supply and shared generators, Economic

exchange of power between the areas(media presentation). Optimal unit commitment (MATLAB)and reliability

considerations(Chalk duster class room teaching)

Automatic Generation and control: Load frequency control problem, Thermal Governing system and transfer

function(media presentation),Steam Turbine and Power system transfer function, Isolated power system:- static

and dynamic response , PI control and implementation. (Simulink)

Two area load frequency control, static and dynamic response, Frequency biased Tie line Bias control-

implementation and effect, Implementation of AGC(media presentation), AGC in restructured power

system(media presentation), under frequency load shedding, GRC, Dead band and its effect. (Most of the topics

will be through video presentation)

MODULE-III(15 Hours)

Power System Stability: Types of Stability Study, Dynamics of synchronous machine(media presentation),

Power angle equation, Node elimination technique(Chalk duster class room teaching), Simple Systems, Steady

state stability(media presentation), Transient stability(media presentation), Equal area criteria and its

applications, Numerical solution of swing equation, Modified Euler’s method. (Most of the topics will be through

video presentation and MATLAB programming)

Text Books: 1. Kothari. D. P, Nagrath. I. J., Modern Power System Analysis, TMH Publication, Third Edition, 2008

2. Kothari. D. P, Nagrath. I. J., Power System Engineering, TMH Publication, Second Edition, 2008

3. George Kausic. Computer Aided Power System Analysis, Prentice Hall Publication.2008

4. Chakrabarti .A, Halder. S, Power System Analysis- Operation and Control, PHI, Second Edition 2008.

5. Allen. J. Wood., Bruce. F. Wollenberg., Power Generation operation and Control, Wiley India, Second Edition,

2007.

6. PrabhaKundur , Power System Stability and Control , TMH Publication,2008.

Reference Books: 1. Soman. S. A, Kharphade. S. A, and SubhaPandit Computer Methods for Large Power System Analysis, an Object

Oriented Approach, Kluwer Academic Publisher New York 2001

2. Anderson P.M, Fouad A.A, Power System Control and Stability, Wiley Inter-Science, 2008 Edition

3. Kimbark E W, Power System Stability, Volume I, and III, Wiley Publication.

4. Jr W.D. Stevenson., G. J. Grainger. Elements of Power System. Mc-Graw-Hill Publication

5. HadiSaadat, Power System Analysis, TMH Publication ,Second Edition, 2002

Module 1

Sl.

No


Theory+T

utorial

Practice Video Project

1 Load Flow Studies

2 Network model

formulation

CRT

Chalk duster class

room teaching

2 0 0 0

3 Y bus formation and

singular matrix

transformation

CRT+PRA Chalk duster class

room

teaching+MATLAB

2 2 0 0

4 Load flow problem,

Gauss Seidel (GS)

method


room

teaching+MATLAB

2 2 0 0

5 Newton-Raphson

method (NR) (Polar,

Rectangular form)


room

teaching+MATLAB

2 1 0 0

6 Decoupled, Fast Decoupled load flow

and comparison.

Concept of DC loads

flow.

CRT Chalk duster class room

teaching+PPT

2 0 0 0

Sub Total 10 5 0 0

Module 2

Sl.

No

Topic Pedago

gy


Theory Practice Video Project

1 Economic System Operation-

2 Generator operating cost:- input-output, Heat

rate and IFC curve

CRT

CRT

2 0 0 0

3 Constraints in operation, Coordinate equation, Exact coordinate equation,

CRT 1 0 0 0

4 Bmn coefficients, transmission loss formula CRT 1 0 0 0

5 Economic operation with limited fuel supply

and shared generators, Economic exchange of

power between the areas.

CRT CRT +

PPT +

Videos

2 0 0 0

6 Optimal unit commitment and reliability

considerations

CRT CRT + e-

content

2 0 0 0

7 Automatic Generation and control: PPT PPT +

Videos

1 0 0 0

8 Load frequency control problem

PPT PPT + e-

content

1 0 0 0

9 Thermal Governing system and transfer

function

CRT+

Media

Present

ation

e-content

+ CRT

1 0 0 0

Sl.

No

Pedago

gy



10 Steam Turbine and Power system transfer

function, Isolated power system:- static and

dynamic response , PI control and

implementation.

CRT+

Media

Present

ation

CRT

3 0 0 0

11 Two area load frequency control, static and

dynamic response,

2 0 0 0

12 Frequency biased Tie line Bias control-

implementation and effect, Implementation of

AGC

CRT CRT 2 0 0 0

13 AGC in restructured power system, under

frequency load shedding,

CRT+

Media

Present

ation

PPT 1 0 0 0

14 GRC, Dead band and its effect. CRT CRT 1 0 0 0

Module 3 Sub Total 20 0 0 0

Power System Stability:

2

1 Types of Stability Study, Dynamics of

synchronous machine

CRT+

Media Present

ation

PPT+

Videos

2 0 1 0

2 Power angle equation, CRT e-content 2 0 0 0

3 Node elimination technique CRT CRT 2 0 0 0

4 Simple Systems, Steady state stability,

Transient stability,

CRT e-content

+ PPT

2 0 0 0

5 Equal area criteria and its applications, CRT 2 0 0 0

6 Numerical solution of swing equation CRT CRT 1 0 0 0

7 Modified Euler’s method CRT 1 0 0 0

Sub Total 14 0 1 0

PCEL4201 Power System Protection

Credits: 04 Total Hrs: [50]

Course Objective

To make students conversant with Power plant and Power system protection practice, as per Indian Electricity Act,

Electricity rule.

Course outcomes:

Students will learn fundamentals of protection in a system i.e. for reasons of safety the protection will work

when control fails.

How the different protection schemes work. The logic of a protection scheme.

Details of different protective equipments & instrument transformer

how power plants (hydro-thermal-solar-wind) works in integration with power grid,

what are the risk in system/machines & how to mitigate risk

Modern Protection schemes

Module-I (16 Hours)

Introduction: Need for protective scheme, nature and cause of faults, types of faults, effect of faults, zones of

protection, primary and back-up protection, classification of protective relays, classification of protective

schemes, CT & PT for protection, basic relays terminologyOperating principles and relay construction:

Technique to produce time delays, Thermal relays Comparators and signal mixing-introduction, replica

impedance, mixing transformer or circuits, phase and amplitude comparators-classification, general equation for

comparator

Module-II (16 Hours)

Over current Relays-introduction, instantaneous over current relays, time current relays, application of different

types of time-current characteristics, basic principles of time over current relays, practical circuit for time over

current relays

Differential relays-introduction, operating characteristics, restraining characteristics, types of differential relays,

Analysis of electromagnetic and static differential relays, static relay scheme

Directional relays-introduction, phase comparator directional units, amplitude comparator directional units,

inputs to static directional relays for maximum output. Distance relays-introduction, types of distance relays

Module-III (16 Hours)

Microprocessor Based Protective Relays (Numerical Relays): Introduction, Circuit interface and programme

algorithm of over current relays, Impedance, Mho relay relays

Circuit Breaker: Arc voltage, arc interruption, restriking and recovery voltage, current chopping, interruption of

capacitive current, classification of circuit breaker-oil CB, Air blast CB, SF6 CB, Vacuum CB, DC Circuit

Breakers.

Text Book: 1. Power System Protection and Switchgear by Badri Ram& D. N. Vishwakarma, Tata-McGraw-Hill Power System

2. Protection: Static Relays with microprocessor application by T. S. MadhavaRao, Tata-McGraw-Hill

Reference Books:

1. Power System Protection and Switchgear–B Ravindranath& M Chander–New Age International Publishers.

2. Fundamentals of Power system Protection–Y G Paithankar& S R Bhide, PHI Publishers.

Module I

S.

No.



1 Introduction: Need for protective scheme, nature

and cause of faults, types of faults, effect of faults,

zones of protection, primary and back-up

protection, classification of protective relays,

classification of protective schemes, CT & PT for

protection, basic relays terminology

CRT & Video

presentation

www.ge.com/r

elays/facult-

clearing#

3 1 1

0

2 Operating principles and relay construction:

Technique to produce time delays, Thermal relays

www.simens

.com/relay-

details

3 1 1 0

3 Comparators and signal mixing-introduction,

replica impedance, mixing transformer or circuits,

phase and amplitude comparators-classification,

general equation for comparator

CRT www.electroni

cs for

you.in/phase

comparisons

4 0 2 0

Sub total 10 2 4 0

https://www.google.co.in/search?tbo=p&tbm=bks&q=inauthor:%22Badri+Ram%22

https://www.google.co.in/search?tbo=p&tbm=bks&q=inauthor:%22D.+N.+Vishwakarma%22

Module II

S.

No.



1 Over current Relays-introduction, instantaneous

over current relays, time current relays,

application of different types of time-current

characteristics, basic principles of time over

current relays, practical circuit for time over

current relays CRT &

Video

presentation

www.ge.com/rel

ays/facult-

clearing# 3 1

1

0

2 Differential relays-introduction, operating

characteristics, restraining characteristics, types

of differential relays, Analysis of electromagnetic

and static differential relays, static relay scheme

www.simens

.com/relay-

details 3 1 1 0

3 Directional relays-introduction, phase

comparator directional units, amplitude

comparator directional units, inputs to static

directional relays for maximum output

CRT www.electronics

for you.in/phase

comparisons 3 0 0 0

4 Distance relays-introduction, types of distance

relays

www.nptel.com/

distanceprotecti

on

3

Sub total 12 2 2 0

Module III

S.

No.



1 Microprocessor Based Protective Relays

(Numerical Relays): Introduction, Circuit

interface and programme algorithm of Over

current relays, Impedance, Mho relay relays CRT & Video

presentation

www.ge.com/n

umerical-

relay 5 1 0

6

2 Circuit Breaker: Arc voltage, arc interruption,

restriking and recovery voltage, current chopping,

interruption of capacitive current, classification of

circuit breaker-oil CB, Air blast CB, SF6 CB,

Vacuum CB, DC CB

Telkltd.com

4 2 0 0

Sub total 9 3 0 6

PLEL4105 POWER SYSTEM ANALYSIS LAB

(Common with EEE)

Credits: 02 Total Hrs: [36]

Course Objectives:

-To introduce the concepts of power flow techniques.

--To provide the knowledge of reactive power flow control.

Course Outcomes:


-Make different power flow solutions for different techniques.

-Understand the different fault conditions under different short circuit studies.

List of Experiments: 1. Fault Analysis of 3-phase Alternator 2. Determination of Xd and Xq of 3-phase salient pole Synchronous motor

3. IDMT (Inverse Definite Minimum Time) relay characteristics

4. Determination of breakdown strength of oil by variable distance electrodes.

5. Determination of transmission line parameters. 6. Fault analysis (LL, LG, and LLL) of transmission lines.

Simulation Based (Using Matlab Or Any Other Software):

1. To obtain steady-state, transient and sub-transient short-circuit currents in an alternator. 2. To formulate the Y-Bus matrix and perform load flow analysis.

3. To compute voltage, current, power factor, regulation and efficiency at the receiving end of a three

phase Transmission line when the voltage and power at the sending end are given. Use П model. 4. To perform symmetrical fault analysis in a power system.

5. To perform unsymmetrical fault analysis in a power system.

6. Conduct a power flow study on a given power system.

EXPT.

No



1 Fault Analysis of 3-phase Alternator PRAC

Hardware

0 3 0

2 Determination of Xd and Xq of 3-phase

salient pole Synchronous motor

PRAC 0

3 0

3 IDMT (Inverse Definite Minimum Time)

relay characteristics

PRAC 0

3 0

4 Determination of breakdown strength of

oil by variable distance electrodes

PRAC 0

3 0

5 Determination of transmission line

parameters

PRAC 0

3 0

6 Fault analysis (LL, LG, and LLL) of

transmission lines

PRAC 0

3 0

7 To obtain steady-state, transient and sub-

transient short-circuit currents in an

alternator

PRAC

Hardware

&

simulation

Practice

using

Simulink

0

3 0

8 To formulate the Y-Bus matrix and

perform load flow analysis

PRAC 0

3 0

9 To compute voltage, current, power

factor, regulation and efficiency at the

receiving end of a three phase

Transmission line when the voltage and power at the sending end are given. Use

П model

PRAC

0

3

0

10 To perform symmetrical fault analysis in

a power system

PRAC 0

3 0

11 To perform unsymmetrical fault analysis

in a power system

PRAC 0

3 0

12 Conduct a power flow study on a given

power system

PRAC simulation

Practice

using

Simulink

0

3 0

ELECTRICAL & ELECTRONICS ENGINEERING

PCEE4101 ELECTRICAL DRIVES

Credits: 04 Total Hours: [50]

Course Objectives:

-To provide students with a solid foundation in industrial application of drives so that they can analyze, design, solve

problems and participate successfully in the development activities of the industry. -To enhance their comprehending power in tackling complex situations in operation and control and be able to work

in multi-disciplinary projects.

-To make the students understand the basic concept and working of VFD used in industry.

-To train the students on the application of power electronics.

Course Outcomes:


-Demonstrate an ability to analyze in problems associated with electrical drives. .

-Can participate and succeed in competitive examinations like GATE, GRE.

-Will demonstrate knowledge of electrical drives.

-Able to perform the different speed control technique as per the requirement of industry.

Module-I (16 Hours)

1. Study of Motor Drives: Electrical Drives, Advantages of Electrical Drives, Electrical Motors, Power

Modulators, Choice of electrical Drives, Fundamentals of Torque Equations, Speed Torque Conventions

and Multi-quadrant Operation, Equivalent Values of Drive Parameters, Components of Load Torques,

Nature and Classification of Load Torques, Calculation of Time and Energy Loss in Transient Operations,

Steady State Stability, Load Equalization, Thermal Model of Motor for Heating and Cooling, Classes of

Motor Duty, Determination of Motor Rating.

Module-II (18 Hours)

2. Steady State Performance of DC/AC Drives: DC Motors and their Performances, Starting, Braking,

Speed Control, Methods of Armature Voltage Control, Transformer and Uncontrolled Rectifier Control,

Controlled Rectifier Fed DC Drives, Chopper Controlled DC Drives.

3. Induction Motor Drives: Speed Control, Pole Changing, Pole Amplitude Modulation, Stator Voltage

Control, Variable Frequency Control from Voltage Source, Voltage Source Inverter Control, Variable

Frequency Control from Current Source, Current Source Inverter Control, Current Regulated Voltage

Source Inverter Control, Rotor Resistance Control, Slip Power Recovery

Module-III (16 Hours)

4. Traction Drives: Nature of Traction Load, Calculation of Traction Drive Ratings and Energy

Consumption, Tractive Effort and Drive Ratings, Specific Energy Consumption, Maximum Allowable

Tractive Effort, Conventional DC and AC Traction Drives, 25 kV AC Traction using Semiconductor

Converter Controlled DC Motors, DC Traction employing Polyphase AC Motors, AC Traction

employing Polyphase AC Motors.

Text Books:

1. “Fundamentals of Electrical Drives”-By G.K.Dubey, Alpha Science International Limited, Pangbourne, UK,

Second Edition, 2001.

2. “Electric Drives-Concepts and Applications”- By VedamSubramanyam, Second Edition, Tata McGraw Hill

Publication, 2010-11.

Reference Book:

1. Modern Power Electronics and AC drives- by B.K.Bose, Pearson Education.

Module I

S.

No.


Study of Motor Drives: Theory Practice video Project

1 Advantages of Electrical Drives,

Electrical Motors, Power

Modulators, Choice of electrical

Drives, Fundamentals of Torque

Equations, Speed Torque

Conventions and Multi-quadrant

Operation,

CRT

presentation

With

animations for

the better

understanding 6+0 0 0 0

2 Equivalent Values of Drive

Parameters, Components of Load

Torques, Nature and Classification of

Load Torques, Calculation of Time and Energy Loss in Transient

Operations, Steady State Stability,

Load Equalization, Thermal Model

of Motor for Heating and Cooling,

Classes of Motor Duty,

Determination of Motor Rating.

CRT

presentation

6+4 0 0 0

Module II Total 16

Steady State Performance of DC/AC

Drives:

Motors and their Performances,

Starting, Braking

CRT

Presentation

practice Matlab

Simulink 3+1

Methods of Armature Voltage

Control, Transformer and

Uncontrolled Rectifier Control,

Controlled Rectifier Fed DC Drives,

Chopper Controlled DC Drives.

CRT

Presentation

practice

Matlab

Simulink and

hardware

4+2

Speed Control, Pole Changing, Pole

Amplitude Modulation, Stator

Voltage Control, Variable Frequency

Control from Voltage Source, Voltage

Source Inverter Control, Variable

Frequency Control from Current Source, Current Source Inverter

Control, Current Regulated Voltage

Source Inverter Control, Rotor

Resistance Control, Slip Power

Recovery Traction Drives:

CRT

Presentation

practice

Matlab Simulink

6+2

Module III Total 18

6

Nature of Traction Load, Calculation of Traction Drive Ratings and

Energy Consumption, Tractive Effort

and Drive Ratings, Specific Energy

Consumption, Maximum Allowable

Tractive Effort

CRT

Presentation 5+4

7

Maximum Allowable Tractive Effort,

Conventional DC and AC Traction

Drives, 25 kV AC Traction using

Semiconductor Converter Controlled

DC Motors, DC Traction employing

Polyphase AC Motors, AC Traction

employing Polyphase AC Motors.

CRT

Presentation 7

Total 16

PCEE4102 POWER SYSTEM ANALYSIS


Course Objectives:


-To provide the knowledge of power system stability.

-To provide the knowledge of reactive power flow control.

Course Outcomes:




-Apply their knowledge in PSA for competitive exams like GATE, IES and PSUs etc.

MODULE-1 (16 Hours)

Power System Network Matrices

Graph Theory: Definitions, Bus Incidence Matrix, Ybus formation by Direct and Singular Transformation

Methods, Numerical Problems.Formation of ZBus: Partial network, Algorithm for the Modification of ZBus

Matrix for addition element for the following cases: Addition of element from a new bus to reference, Addition

of element from a new bus to an old bus, Addition of element between an old bus to reference and Addition of

element between two old Busses (Derivations and Numerical Problems).- Modification of ZBus for the changes

in network

MODULE-2 (20 Hours)

Power flow studies

Necessity of Power Flow Studies – Data for Power Flow Studies – Derivation of Static load flow equations –

Load flow solutions using Gauss Seidel Method: Acceleration Factor, Load flow solution with and without P-V

buses, Algorithm and Flowchart. Numerical Load flow Solution for Simple Power Systems (Max. 3-Buses):

Determination of Bus Voltages, Injected Active and Reactive Powers (Sample One Iteration only) and finding

Line Flows/Losses for the given Bus Voltages. Newton Raphson Method in Rectangular and Polar Co-Ordinates

Form: Load Flow Solution with or without PV Busses- Derivation of Jacobian Elements, Algorithm and

Flowchart. Decoupled and Fast Decoupled Methods. - Comparison of Different Methods – DC load Flow

MODULE-3 (18 Hours)

Short Circuit Studies

Per-Unit System of Representation, Per-Unit equivalent reactance network of a three phase Power System,

Numerical Problems. Symmetrical fault Analysis: Short Circuit Current and MVA Calculations, Fault levels,

Application of Series Reactors, Numerical Problems. Symmetrical Component Theory: Symmetrical Component

Transformation, Positive, Negative and Zero sequence components: Voltages, Currents and Impedances.

Sequence Networks: Positive, Negative and Zero sequence Networks, Numerical Problems. Unsymmetrical Fault

Analysis: LG, LL, LLG faults with and without fault impedance, Numerical Problems, Elementary concepts of

Steady State, Dynamic and Transient Stabilities, Description of: Steady State Stability Power Limit, Transfer

Reactance, Synchronizing Power Coefficient, Power Angle Curve and Determination of Steady State Stability

and Methods to improve steady state stability. Derivation of Swing Equation, Determination of Transient Stability

by Equal Area Criterion, Application of Equal Area Criterion, Critical Clearing Angle Calculation.- Solution of

Swing Equation: Point-by-Point Method. Methods to improve Stability - Application of Auto Reclosing and Fast

Operating Circuit Breakers.

TEXT BOOKS: 1. Computer Techniques in Power System Analysis by M.A.Pai, TMH Publications.

2. Modern Power system Analysis – by I.J.Nagrath & D.P.Kothari: Tata McGraw-Hill Publishing company, 2nd edition.

REFERENCE BOOKS: 1. Power System Analysis by Grainger and Stevenson, Tata McGraw Hill.

2. Power System Analysis – by A.R.Bergen, Prentice Hall, Inc. 3. Power System Analysis by Hadi Saadat – TMH Edition

Module I

S.

No.

Topic Pedagogy Details Instructional Hrs Theory Practice video Project

Graph Theory

1

Definitions, Bus Incidence

Matrix

CRT & e-

material

https://www.youtube.

com/watch?v=iP359

o1zYPs

1 0 0 0

2 Ybus formation by direct method CRT & e-

material

With E-Content &

NPTEL Video 2 0 0 0

3 Ybus formation by Singular

transformation method

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software- MATLAB

2 1 0 0

4

Formulation of ZBUS:Partial

Network

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software- MATLAB

1 1 0 0

5

Algorithm for the Modification

of ZBus Matrix for addition

element

CRT & e-

material

With E-Content &

NPTEL Video 1 0 0 0

6 Addition of element from a new

bus to reference

CRT & e-

material

With E-Content &

NPTEL Video 2 0 0 0

7 Addition of element from a new

bus to an old bus

CRT & e-

material

With E-Content &

NPTEL Video 1 0 0 0

8 Addition of element between an

old bus to reference bus

CRT & e-

material

With E-Content &

NPTEL Video 2 0 0 0

9

Addition of element between

two old Busses, Modification

of ZBus for the changes in

network.

CRT & e-

material

With E-Content &

NPTEL Video 2 0 0 0

Sub total 14 02 0 0

Module II

S.

No.


Power flow studies Theory Practice video Project

1 Necessity of Power Flow Studies CRT & e-

material

With E-Content &

NPTEL Video

1 0 0 0

2 Data for Power Flow Studies CRT & e-

material 1 0 0 0

3 Derivation of Static load flow equations CRT & e-

material 1 0 0 0

4 Load flow solutions using Gauss Seedel

Method: Acceleration Factor

CRT, e-

material &

Practice

2 1 0 0

5 Load flow solution with and without P-

V buses, Algorithm and Flowchart

CRT, e-

material &

Practice

1 1 0 0

6 Numerical Load flow Solution for

Simple Power Systems

CRT & e-

material 1 0 0 0

7 Determination of Bus Voltages CRT & e-

material 1 0 0 0

8

Injected Active and Reactive Powers (Sample One Iteration only) and finding

Line Flows/Losses for the given Bus

Voltages.

CRT & e-

material 1 0 0 0

9

Newton Raphson Method in

Rectangular and Polar Co-Ordinates

Form

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software-

MATLAB

2 1 0 0

10

Load Flow Solution with or without PV

Busses- Derivation of Jacobian

Elements

CRT & e-

material

With E-Content &

NPTEL Video 1 0 0 0

11 Algorithm and Flowchart

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software-

MATLAB

2 1 0 0

12 Decoupled and Fast Decoupled Methods

CRT & e-material

With E-Content & NPTEL Video

1 0 0 0

13 Compcomparison of Different Methods – DC

load Flow

CRT & e-

material

With E-Content &

NPTEL Video 1 0 0 0

Sub total 16 4 0 0

Module III

S. No. Topic Pedagogy Details Instructional Hrs

Theory

+Tutorial Practice video

Project

1

Per-Unit System of Representation, Per-Unit

equivalent reactance network

of a three phase Power System

CRT & e-

material

With E-Content

& NPTEL Video 2 0 0 0

2

Symmetrical fault Analysis,

Short Circuit Current and

MVA Calculations

CRT & e-

material

With E-Content


3 Application of Series

Reactors

CRT & e-

material

With E-Content


4 Symmetrical Component

Transformation

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software-

MATLAB

1 1 1 0

5

Positive, Negative and Zero

sequence components,

Voltages, Currents and

Impedances.

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software-

MATLAB

2 1 0 1

6 Positive, Negative and Zero sequence Networks

CRT & e-material

With E-Content & NPTEL Video

1 0 0 0

7

LG, LL, LLG faults with and

without fault impedance,

Numerical Problems.

CRT, e-

material &

Practice

With E-Content,

NPTEL Video&

Software-

MATLAB

1 1 0 0

8

Elementary concepts of

Steady State, Dynamic and

Transient Stabilities

CRT & e-

material

With E-Content


9

Steady State Stability Power

Limit, Transfer Reactance,

Synchronizing Power

Coefficient

CRT & e-

material

With E-Content


10

Power Angle Curve and

Determination of Steady State

Stability and Methods to improve steady state stability.

CRT & e-

material

With E-Content


11

Derivation of Swing

Equation, Point-by-Point

Method. Methods to improve

Stability.

CRT, e-

material & Practice

With E-Content,

NPTEL Video&

Software- MATLAB

2 1 0 0

Subtotal 14 4 0 0

PLEL4105 POWER SYSTEM ANALYSIS LAB

(Common with EE)


Course Objectives:


--To provide the knowledge of reactive power flow control.

Course Outcomes:




List of Experiments:

7. Fault Analysis of 3-phase Alternator

8. Determination of Xd and Xq of 3-phase salient pole Synchronous motor

9. IDMT (Inverse Definite Minimum Time) relay characteristics

10. Determination of breakdown strength of oil by variable distance electrodes.

11. Determination of transmission line parameters.

12. Fault analysis (LL, LG, and LLL) of transmission lines.

Simulation Based (Using Matlab Or Any Other Software):

7. To obtain steady-state, transient and sub-transient short-circuit currents in an alternator.

8. To formulate the Y-Bus matrix and perform load flow analysis.

9. To compute voltage, current, power factor, regulation and efficiency at the receiving end of a three phase

Transmission line when the voltage and power at the sending end are given. Use П model.

10. To perform symmetrical fault analysis in a power system.

11. To perform unsymmetrical fault analysis in a power system.

12. Conduct a power flow study on a given power system.

EXPT

. No



1 Fault Analysis of 3-phase Alternator PRAC Hardware 0 3 0

2 Determination of Xd and Xq of 3-phase

salient pole Synchronous motor PRAC Hardware 0 3 0

3 IDMT (Inverse Definite Minimum Time)

relay characteristics PRAC Hardware 0 3 0

4 Determination of breakdown strength of

oil by variable distance electrodes PRAC Hardware 0 3 0

5 Determination of transmission line

parameters PRAC Hardware 0 3 0

6 Fault analysis (LL, LG, and LLL) of

transmission lines PRAC Hardware 0 3 0

7

To obtain steady-state, transient and

sub-transient short-circuit currents in

an alternator

PRAC

Hardware &

simulation

Practice

using

Simulink

0 3 0

8 To formulate the Y-Bus matrix and

perform load flow analysis PRAC 0 3 0

9

To compute voltage, current, power

factor, regulation and efficiency at the

receiving end of a three phase

Transmission line when the voltage and

power at the sending end are given. Use

П model

PRAC 0 3 0

10 To perform symmetrical fault analysis

in a power system PRAC 0 3 0

11 To perform unsymmetrical fault

analysis in a power system PRAC 0 3 0

12 Conduct a power flow study on a given

power system PRAC 0 3 0

PLEE4106 ELECTRICAL DRIVES LAB


Course Objectives:

-To provide students with a solid foundation in industrial application of drives so that they can analyze, design, solve

problems and participate successfully in the development activities of the industry.

-To enhance their comprehending power in tackling complex situations in operation and control and be able to work

in multi-disciplinary projects.

-To make the students understand the basic concept and working of VFD used in industry.

Course Outcomes:


-Demonstrate an ability to analyze in problems associated with electrical drives. .

-Will demonstrate knowledge of electrical drives.

-Able to perform the different speed control technique as per the requirement of industry.

1. Study of torque-speed characteristics of separately excited DC motor from single phase full converter.

2. Study of torque-speed characteristics of armature voltage controlled of separately excited DC motor from

single phase full converter

3. Study of torque-speed characteristics of separately excited DC motor from three phase full converter

4. Study of torque-speed characteristics of DC series motor using chopper.

5. Three phase induction motor speed control using slip power recovery scheme.

6. V/F Control of induction motor.

7. open loop speed control of separately excited DC motor using chopper at high frequency.

8. Three phase induction motor speed control using rotor resistance control

9. Simulation of chopper fed DC drive using MATLAB/SIMULINK.

10. Simulation of variable frequency induction motor drive using MATLAB/SIMULINK

11. Simulation of three phase converter fed separately excited DC motor control using

MATLAB/SIMULINK.

12. Simulation of t single phase converter fed separately excited DC motor control using

MATLAB/SIMULINK.

Expt.

no



1

Study of torque-speed characteristics of

separately excited DC motor from


PRAC

Hardware &

simulation

Practice

using

Simulink

0 3 0

2


armature voltage controlled of

separately excited DC motor from


PRAC 0 3 0

3


separately excited DC motor from three

phase full converter

PRAC 0 3 0

4 Study of torque-speed characteristics of

DC series motor using chopper PRAC 0 3 0

5

Three phase induction motor speed

control using slip power recovery

scheme

PRAC 0 3 0

6 V/F Control of induction motor PRAC 0 3 0

7

open loop speed control of separately

excited DC motor using chopper at high

frequency

PRAC 0 3 0

8 Three phase induction motor speed control using rotor resistance control

PRAC 0 3 0

9 Simulation of chopper fed DC drive

using MATLAB/SIMULINK PRAC 0 3 0

10

Simulation of variable frequency

induction motor drive using

MATLAB/SIMULINK

PRAC 0 3 0

11

Simulation of three phase converter fed

separately excited DC motor control

using MATLAB/SIMULINK

PRAC 0 3 0

12

Simulation of t single phase converter

fed separately excited DC motor control

using MATLAB/SIMULINK

PRAC

simulation

Practice

using

Simulink

0 3 0

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