Revised Syllabus of
( B.E. Mechanical Engineering Sem –VII & VIII )
To be introduced from the academic year 2010-11
(i.e. from June 2010 ) Onwards
(Subject to the modifications will be made from time to time)
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July 2010)
1. REFRIGERATION AND AIR CONDITIONING
Teaching Scheme Examination Scheme
Lectures: 3 Hrs/ Week Theory :100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Practical and Oral: 25 Marks
SECTION I
1 Review of Thermodynamics: 01
Laws, General equations, Processes, Equations applied to
processes.
2 Basic Refrigeration Cycles: 07
Carnot cycle, Reversed Carnot cycle, Simple Vapour compression
cycle, sub-cooling,
superheating, Liquid to suction vapour heat exchanger,
Calculations and performance of
above cycles, Actual vapor compression cycle, Bell Coleman -
Reversed Bryton cycle, Air cycles for air crafts (Descriptive Treatment).
3 Refrigerants: 05
Classification, Desirable Properties like Thermodynamic,
physical,& chemical. Comparison among commonly used refrigerants, Selection
of Refrigerants, Effect on Ozone depletion and global warming, Alternative
Refrigerants.
4 Multi pressure System: 03
Removal of flash gas, Flash inter-cooling, Water-cooling,
Multistage, Multi-evaporator &
Cascade System, Introduction to cryogenic engg & application,
Claude cycle, Linde Cycle.
5 Vapor Absorption System: 02
Aqua Ammonia system, Lithium Bromide water vapour system,
Crystallization, Coefficient of Performance, Comparison with Vapour Compression
cycle. (Descriptive treatment only)
6 Refrigeration Equipments: 03
Compressor, Condenser, Evaporator, Expansion devices, Types,
selection, use of insulation, methods of charging and testing, Non conventional
methods of refrigeration like vortex tube, Pulse Tube.
SECTION II
7 Psychrometry: 07
Moist air as a working substance, Psychrometric properties of air,
Use of Psychrometric tables and charts, Processes, Combinations and
Calculations, ADP, Coil Condition lime, Sensible heat factor, Bypass factor,
Air washer and it’s applications.
8 Comfort: 02
Thermal exchange between human body and environment, factors
affecting comfort, effective temperature comfort chart, ventilation
requirements.
9 Heating and Cooling Load Calculation: 07
Representation of actual air conditioning process by layouts &
on psychrometric charts, Load analysis RSHF, GSHF, ESHF, Enumeration &
brief explanation of the factors forming the load on refrigeration and air
conditioning systems, Energy requirements of different types of air conditioning
systems, Energy conservation in air conditioning.
10 Air Distribution System: 04
Re-circulated air, Ventilation air, Duct work, Use of friction
loss & rectangular equivalent of round duct chart, duct system, principle
of duct sizing, and air distribution it’s norms, diffusers, dampers, layout,
duct systems for theaters, auditorium, hospitals, assembly shop,etc
Reference Books:
1 Principles of Refrigeration - Roy J. Dossat
2 Refrigeration and Air Conditioning - Stoker
3 Refrigeration and Air Conditioning - C. P. Arora
4 Refrigeration and Air Conditioning - Arora Domkundwar
5 Refrigeration and Air Conditioning - V. K. Jain
6 Air Conditioning Principles and Systems - Pita
7 Air Conditioning Applications and Design - W. P. Jones
8 Air Conditioning Engineering - W. P. Jones
9 Thermal environmental engineering – Tnerellaild
Term Work
1 Study of various methods of refrigeration and its applications
2 Study and demonstration of refrigeration system.(water cooler
refrigeration, chiller, ice
plant and cold storage).
3 Study and demonstration on air conditioning systems. (Unitary
and central air
conditioning / system)
4 Study and demonstration of controls in refrigeration.
5 Visit to central air conditioning or cold storage or dairy plant
ot ice plant related with
refrigeration & air conditioning system.
6 Study or demonstration of dehydration, charging leak testing and
testing of
refrigeration system with trouble shooting.
7 Study or demonstration or trial on vapour absorption system.
8 Study / Trial on heat pump.
9 Market survey of various refrigerating & air conditioning
systems which include the
equipments with related specifications, manufacturer, cost. (
minimum 3 to 4
equipments)
10 Study & trial on Cascade refrigeration system.
11 Trial on refrigeration system
12 Trial on air conditioning system.
13 Trial on ice plant.
14 Trial on Cascade system.
* Minimum Three trials are to be conducted.
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July 2010)
2. MECHANICAL SYSTEM DESIGN
Teaching Scheme: Examination Scheme:
Lectures:-3 Hrs/week Theory: - 100 marks
Practicals:-2 Hrs/week Term work: - 25 marks
Oral exam. : - 25 marks
SECTION-I
1 Aesthetic and Ergonomic consideration in Design:- 05
Basic types of product forms, Designing for appearance, shape,
Design features, Materials, Finishes,proportions,Symmetry,Contrast etc.Morgon’s
colour code. Ergonomic considerations- Relation between man, machine and
environmental factors. Design of displays and controls. Practical examples of
products or equipments using ergonomics and aesthetic design principles.
2 System Approach to Design:- 04
System Approach to Design; Mathematical model; Lumped system;
Dynamic response of lumped & distributed system; Modeling of masses,
Elasticity, Inertia, Damping and friction.
3 Pressure Vessel Design:- 06
Thin and thick cylinders; failure criteria of vessels; Lame’s
equation; Clavarino’s and
Birnie’s equation; Autofrettage and compound cylinders; Types of
pressure vessels-Horizontal and vertical; Classification of pressure vessel as
per IS2825, 1969.Introdduction to design of pressure vessels as per IS Codes.
Shell and end closures. Effect of opening & nozzles in shell & covers.
Types of pressure vessel support .
4 A) Brakes:- Design
consideration in brakes, Band, Internal expanding shoe, External 05
contracting shoe. Thermal consideration and rating of brakes.
B) Clutches:- Design requirement of
friction clutches, Selection criteria. Torque transmitting capacity of single
plate, Multidisc clutch, Cone clutch and Centrifugal clutch.
SECTION-II
5 Stastical considerations in Design:- 04
Frequency distribution- Histogram and frequency polygon- Normal
distribution- Units of
measurement of central tendency and dispersion- Standard variable-
Population combination- Design and natural tolerances- Design for assembly-
Statistical analysis of tolerances- Mechanical reliability and factor of
safety.
6 Design of Gear boxes for machine tool applications:- 05
Determination of variable speed range- Graphical representation of
speeds- Structure
diagram- Deviation diagram- Ray diagram- Selection of optimum ray
diagram- Difference
between number of teeth of successive gears in a change gear box-
Analysis of twelve speed gear box- Compound ray diagram
7 Design of Material handling system:- 05
Design of belt and chain conveyors – Power requirement, Selection
of belt and chain, Design of tension take up unit, Idler pulley
8 Optimum Design:- 06
Objectives of optimum design- Johnsons Method of Optimum Design
(MOD),Adequate and optimum design. Primary, Subsidiary and Limit equations-
Optimum design with normal specifications of simple machine elements like
tension bar, transmission shaft, helical spring.
Introduction to optimum design with Langrange Multiplier.
TERM WORK
1) A detail design report and A2 size sheet containing working
drawing of detail and
assembly of the following
a) Design of Machine Tool Gear Box.
b) Pressure vessel design, Brake design or Clutch design.
2) Assignment based on
a)Aesthetic and Ergonomic design consideration –case study
b) Problems on Optimum design.
c) Problems on Material handling equipments.
Reference Books
1 1 Design of machine element by V.B.Bhandari, Tata Mc- Graw Hill
Publication
2 Mechanical Engineering Design by Shigley and C.R.Miscke, Tata
Mc- Graw Hill
Publication
3 Mechanical design analysis by M.F.Spotts, Prentice Hall
publication
4 Machine Design by Black P.H.and O.Eugene Adams, Tata Mc- Graw
Hill Publication
5 Mechanical Design Synthesis with Optimisation Applications by
Johnson R.C.,Von-
Nostrand-Reynold Publicaion
6 Engineering Design by Dieter G.E. Tata Mc- Graw Hill
Publication.
7 Design of Machine Tools by S.K.Basu and D.K.Pal, Oxford and IBH
Publication
8 Machine Tool Design by N.K.Mehta, Tata Mc- Graw Hill Publication
9 Mechanical System Design by S.P.Patil, Jaico Publication
House,New Delhi
10 Product design and process engineering –Benjamin W. Niebel ,
Alan B. Draper, Tata
Mc- Graw Hill Publication
11 Design data PSG College of Technology Coimbatore
12 I.S.:2825 Code for unfired Pressure Vessels
13 Design of Pressure vessel by Harve, CBS publishers and
distributors
14 Engineering Optimization Theories and Practice by S.S.Rao, New
Age Publication
15 Principles of machine tool by Sen. Bhattacharya, New central
book agency
16 Process Equipment Design by M.V.Joshi , Macmillal Publication
17 Machine Design by Robert L.Norton, Tata Mc- Graw Hill
Publication
18 Material Handling Equipment by Rudenko, M.I.R.publishers,
Moscow
19 Reliability in Engineering Design by Kapur Wiley India
20 Fundamentals of Machine Component Design by Junvinall Wiley
India
21 Mechanical System Design by Anurag Dixit SCITECH publication
22 Design of Machine Element/Machine Design by Kannaiah SCITECH publication
23 Design of Machine Element by
Spotts/Shoup/Hornberger/Jayram/Venketesh Pierson
Education
24 Machine Design by T H Wentzell Cengage Learning
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July 2010)
3. FINITE ELEMENT ANALYSIS
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
SECTION – I
1 Introduction: 03
Brief history, Introduction to Matrix Notation, General steps of
FEM using a simple 1-d
element for stress analysis of a stepped bar, Thermal rod, Heat
conduction through wall.
Applications of FEM.
2 Introduction to Calculus of Variations: 03
Functional, Extremization of a functional, obtaining the
variational form from a
differential equation, Principle of virtual work, Principle of
Minimum
potential energy.
3 Approximation methods for solving differential equations: 03
Introduction, Rayleigh-Ritz method, Galerkin method, Least square
method,
Collocation method, Sub-domain method.
4 Discritization of the problem: 03
Introduction, Geometrical approximations, Simplification through
symmetry, Basic
element shapes and behaviour, Choice of element type, Size and
number of elements,
Element shape and distortion, Location of nodes, Node and element
numbering
5 Interpolation Functions and Simplex Elements: 03
Introduction, simplex, complex and multiplex elements, Linear
interpolation
polynomials for simplex elements, Natural co-ordinates, vector
quantities, an axisymmetric element
6 Formulation of the Elements Characteristic Matrices and Vectors
for 04
Elasticity Problems:
Introduction, one dimensional elasticity, two dimensional
elasticity, axi-symmetric
Elasticity
SECTION – II
7 Formulation of the Elements Characteristic Matrices and Vectors
for 04
Field Problems Introduction,
Thermal problems, One dimensional heat transfer, two dimensional heat transfer,
axi-symmetric heat transfer. Torsional problems, Fluid flow problems
8 Assembly And Solution Of The Finite Element Equations: 04
Introduction, co- ordinate transformations, assembly of element
equations,
Incorporation of the boundary conditions, solution of the
equations, elimination method,
penalty method.
9 Higher Order Element Formulations: 08
Introduction, Natural co – ordinates systems and numerical
integration, higher order one
dimensional elements – quadratic and cubic elements, evaluation of
the element
equations, an alternative formulation. Higher order two and three
dimensional elements
– iso-parametric triangular elements, iso-parametric quadrilateral
elements,
isoparametric solid elements, stress and heat flow calculations.
Structural beam, plate
and shell elements, convergence requirements of interpolation
functions.
10 Modeling Procedures And Results Processing: 03
Introduction, model validity and accuracy, mesh design and
refinement, element
distortions, result processing , model checking
11 Solving FEM Problems on a computer: 02
Introduction, Developing on FEM code, Finite element packages.
TERM WORK
1. One assignment on past, present and future of FEA.
2. One assignment on Meshing – types of elements, choice of
element, type of meshing –automatic, mapped, meshing in critical areas.
3 Minimum two examples of one dimensional bar element without
using computer
4 Development of Computer code to solve above mentioned problems.
5. Use of Standard software packages like ANSYS, NISA, NASTRAN,
HYPERWORKS
for solving following types of problems –
a) Design of steel bracket.
b) Beam analysis.
c) Plate with a circular hole.
d) Buckling.
e) Analysis of Fin.
REFERENCE BOOKS:
1. “Introduction to Finite Elements in Engineering”;
Chandrapatala, Belgundu, PHI.
2. “Finite Element Methods for Engineers”; U.S. Dixit, Cengage
Learning.
3. “An Introduction to Finite Element Method”; J. N. Reddy; 2/e,
McGraw Hill
International Editions, ISBN 0-07-112799-2
4. “Finite Element Analysis – Theory and Practice”; M.J. Fagan,
Longman Scientific &
Technical.
5. “The Finite Element Method – Basic Concepts and Linear
Applications”; O. C,
Zienkiewicz; McGraw Hill International Editions; ISBN
0-07-084175-6
6. “Practical Finite Element Analysis”, N.S. Gokhale, S.S.
Deshpande, S.V. Bedekar, A.N. Thite, Finite to Infinite Publication.
7. The Finite Element Method For Engineers – Huebner Willy India
8. Concepts of Finite Element Methods by Manicka Selvam SCITECH
publication
9 A First Course in the Finite Element Analysis By D.L.Logan
CENGAGE
Learning
10 Practical Finite Element Analysis By Gokhale, Deshpande,
Bedekar, Thite Finite to
Infinite Pune
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July 2010)
4. ELECTIVE-I
1. EXPERIMENTAL MECHANICS
Teaching Scheme: Examination Scheme:
Lectures :-3 Hrs/week Theory: - 100 marks
Practicals:-2 Hrs/week Term work: - 25 marks
Practical and Oral Exam.: - 25 marks
1. Elementary elasticity : Stress, stress equations of equilibrium, principle 04
stresses, stress strain relations, principal strains.
2. Brittle coating methods: Coating stress, brittle coating crack patterns, 04
crack detection, test procedures, calibration, and analysis.
3. Strain gauges : Electrical resistance strain gauges, semi conductor strain 06
gauges, strain gauge circuits, recording instruments, analysis of
strain gauge data.
4. Moire methods : Mechanism of formation of Moire fringe, geometrical 06
approach to moire fringe analysis, displacement field approach to
Moire
fringe analysis, out of plane: measurements experimental
procedure.
5. Photo elasticity methods : Temporary double refraction, stress optic law, 05
effects of stressed model in a plane polariscope, fringe
multiplication.
6. Two dimensional photo
elasticity : Isochromatic fringe patterns,
isoclinic 05
fringe pattern, compensation techniques, calibration method
separation method, scaling
model to prototype stresses, materials.
7. Three dimensional photo
elasticity : Locking in model deformations, 05
materials, shear difference method, scattered light method.
8. Birefringent coatings : Coating stresses and strains, sensitivity, materials 05
and applications, effects of thickness, stress separation.
Term Work
Minimum Ten of the following Experiments to Be Performed
1 Bonding Of Strain Gauge And Checking Its Installation
2 Calculation Of Gauge Factor And Strain For Single And Two Arm
Bridges.
3 Calculation Of Gauge Factor And Strain For Four Arms Lateral And
Linear Sensitive Bridges.
4 Measurement By Using Commercial Strain Indicator And
Transducers.
5 Sheet Casting And Preparation Of Photo Elastic Model
6 Calibration Of Photo Elastic Model Material.
7 Study Of Isoclinic, Iso-chromatics And Tardy Method.
8 Separation Of Stresses Using Oblique Incidence Method.
9 Separation Of Stresses Using Electrical Analogy Method, Use Of
Analogue Field Plotter.
10 Study Of Moiré Fringe Technique.
10 Study Of Brittle Coating Method.
12 Study Of Three dimensional photo
elasticity
References:
1 Experimental stress analysis – Dally and Riley.-McGraw Hill
2 Experimental stress analysis – Dr. Sadhu Singh., Khanna
Publications.
3 Experimental stress analysis – L.S.Srinath., Tata McGraw Hill
4 Experimental stress analysis – Dove and Adams
5 The strain gauge primer – Perry Listner.
6 Moiré fringes – Theocoris. Pergamon press limited.
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July 2010)
4. ELECTIVE-I
2. NOISE & VIBRATIONS
Teaching Scheme: Examination Scheme:
Lectures :-3 Hrs/week Theory: - 100 marks
Practicals:-2 Hrs/week Term work: - 25 marks
Practical and Oral Exam.: - 25 marks
SECTION-I
1 Introduction: 03
Importance & scope, Concepts & terms used, SHM, Vector and
Complex method of
representing vibration, Fourier series & harmonic analysis.
2 Single DOF system: 09
(a) Damped free vibrations, Types of damping, Logarithmic
decrement, Coulomb damping, and
damping materials.
(b) Forced Vibrations: Types of excitation, Forced excitation,
Support excitation, Excitation
due to unbalance in machines, Response due to above types of
excitations, transmissibility, Force transmissibility & motion
transmissibility, Vibration isolators, commercial isolation materials &
shock mounts.
(c) Forced vibrations of un-damped systems due to non-harmonic
excitations
3 Two DOF system: 08
(a) Free un-damped vibrations – Principal modes and natural
frequencies, Co-ordinate coupling and principal co-ordinates.
(b) Forced vibrations (Undamped) – Harmonic excitation, Vibration,
Dampers & absorbers, Dynamic vibration absorber – Tuned & Untuned type
SECTION II
4 Introduction to Numerical Methods in Vibration 05
Holzer method, Raleigh’s method, Matrix iteration method
5 Vibration Measuring Instruments 05
Instruments for measurement of displacement, velocity, acceleration
& frequency of vibration, Sensors and Actuators, Introduction of X – Y
plotter, Spectral analyzers, FFT analyzer.
6 Sound level & subjective response to sound
Frequency dependent human response to sound , Sound pressure
dependent human response , Decibel scale, Relation among sound power, Sound
intensity & sound pressure level, Octave band analysis. 05
7 Noise- Effects, Rating ®ulation
Non auditory effects of noise on people, Auditory effects of
noise, Noise standards & limits, Ambient emission noise standards in INDIA,
Hazardous noise explosion, Day night noise level, Noise sources &control. 05
Term Work
Minimum Eight Experiments out of following list.
1 Experiment on equivalent spring mass system.
2 Experiment on study of forced vibration characteristics
3 Determination of logarithmic decrement for single DOF damped
system
4 Experiment on torsional vibration of two rotor without damping
5 Experiment on free vibration of a coupled pendulum and double
pendulum
6 Use of different types of exciters for vibration analysis
7 Measurement of vibration parameters using vibration instruments
8 Exercise on numerical calculation of natural frequencies by
either Holzer,
Raleigh’s or matrix iteration method.
9 Measurement of Noise by using noise measuring instruments
Reference Books:
1 Mechanical Vibration by G. K. Grover, Published by Nemchand
& Brothers, Roorkee
2 Mechanical Vibration – Austin Church, Wiely Eastern.
3 Schaumm’s Outline series in Mechanical Vibration by S. Graham
Kelly
4 Mechanical Vibration by Dr. V. P. Singh, Published by S. Chand
& Sons New Delhi.
5 Noise and vibration control by Leo L. Bernack, Tata Mc- Graw
Hill Publication
6 Machanical vibration & noise engineering by A.G.Ambekar
prentice hall of INDIA
7 Kinematics,Dynamics and Design of Machinery by Waldron Willey
India
8 fundamentals of Vibrations ByBalchandran Magrab CENGAGE LEARNING
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
4. ELECTIVE-I
3. AUTOMOBILE ENGINEERING
Teaching Scheme Examination Scheme
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Practical and Oral Exam.: - 25 marks
SECTION – I
1 Classification of Automobiles: 04
Broad classification of Automobiles. Major Components and their
functions. Types of
vehicle layouts, Front engine rear wheel drive, Front engine front
wheel drive, All
wheel drive, Types of bodies, Body construction and materials.
2 Automobile Power Plants: 03
Requirements of automotive power plants. Comparison and
suitability considerations.
Types and special features of automotive engines, Fuel cells,
Electric vehicles, Hybrid
Vehicles , advantages and limitations.
3 Performance of Automobiles: 04
Resistance to vehicle motion, Air, Rolling and Gradient
resistance, Acceleration, Grade
ability and draw bar pull, Traction and Tractive effort,
Distribution of weight, Power
required for vehicle propulsion, Selection of gear ratio, Rear
axle ratio. (Numerical)
4 Transmission: 03
Automobile clutch requirements, Types & functions.
5 Gear box: 06
Requirements & Types & functions,Overdrive, Principle of
operation of automatic
transmission, Torque converter, Epicyclic gear trains, Propeller
shaft, Universal and slip
joint, Final drive and its types, Differential, Construction and
types of rear axles.
SECTION II
6 Steering System: 05
Function of steering, Steering system layout, Automotive steering
mechanism-
Ackerman and Davis, Types of steering gear boxes, Condition for
true rolling, Steering
geometry-Camber, Caster, King pin inclination, Included angle,
Toe-in and Toe-out,
Wheel alignment, Slip angle, Under steer & over steer, Types
and working of power
steering,.
7 Braking System: 05
Function of automotive brake system, Types of braking mechanism
internal expanding
& Disc brake, Mechanical, Hydraulic& Air brake system,
Servo and power brakes, Anti
lock and antiskid braking, Calculation of braking force required,
stopping distance and
dynamic weight transfer.(Numerical)
8 Suspension Systems: 04
Suspension requirements, Sprung and Un sprung mass, Types of
automotive suspension systems. Conventional and Independent, Shock absorber,
Types of springs, Hotch- kiss and Torque tube drive, Reaction members-Radius
rod, Stabilizer bar, Air suspension system.
9 Electrical System: 04
Automotive batteries, Automotive lighting system. Starting system,
Charging system,
Voltage and current regulator, Electric horn, Dash board gauges,
Wiper & side indicator
circuit, Engine electronic control modules, Safety devices.
10 Two Wheelers And Three Wheelers 02
Distinguishing features and general layout of two wheelers and
three wheelers.
TERM WORK
Minimum eight experiments from Group A and all experiments from
Group B are to be
Performed
Group A.
1. Study and demonstration of four wheeler chassis layout.
Two-wheel & four-wheel drive
layouts.
2. Study and Demonstration of working of single plate automobile
clutch.
3. Study and demonstration of synchromesh gearbox.
4. Study and demonstration of final drive and differential.
5. Study and demonstration of working Hydraulic braking system.
6. Study and demonstration of front wheel steering geometry and
steering mechanism.
7. Study and demonstration of suspension system of a four-wheeler.
8. Study and demonstration of battery, electrical charging system.
9. Study and demonstration of electrical starting system
10. Study and demonstration of a] D. C. Electric horn.
(a) Electric Fuel Gauge
(b) Electric fuel Gauge.
(c) Flasher unit.
(d) Wiper circuit
Group B.
1 Experiment on wheel balancing & front wheel alignment.
2 Visit to servicing station for study of vehicle maintenance,
repairs and report.
REFERENCE BOOKS:
1 Automobile Engineering; G. B. S. Narang
2 Automobile Mechanics; N. K. Giri
3 Automobile Electrical Equipment; P. S. Kohali
4 Motor Vehicle; Newton & Steeds
5 Automobile Engineering; Course
6 Motor Vehicle; Ketts.
7 Automobile Engineering by Ramalingam SCITECH publication
8 Fundamentals of Automobile Engineering by Ramalingam SCITECH
publication
9 Automotive Engines Theory & Servicing 5e by J D Harderman/C
D Mitchell Pierson
Education
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
4. ELECTIVE-I
4. JIG & FIXTURE DESIGN
Teaching Scheme: Examination Scheme:
Lectures: 3 Hrs. / Week Theory Paper (4 Hrs): 100 Marks
Practical: 2 Hrs. / Week/ Batch Term work: 25 Marks
Practical and Oral Exam.: - 25 marks
Course Objective
To introduce the students to the design practices of toolings
(Jigs and Fixtures)
and die design for presswork.
SECTION – I
1. Introduction to Jigs and Fixtures : Necessity, applications and
types, basic concept of jigs and fixtures for different manufacturing
processes, dependency of jig and fixture design on operation sequence. (3)
2. Location & clamping system: Principles, types,
applications, locating pins, pads, diamond pins, adjustable supports, Vee &
post locators, clamping system - principle, types, screw clamp, strap, lever,
hinge type, cam operated, toggle clamps, centralizer & equalizer clamp, multiple
clamping, quick acting clamps, pneumatically operated clamps. (5)
3. Design of Jigs: Principles of jig design, types of jigs- plate,
template, box, channel,
sandwich, latch, tumble, turn-over, tumble jig etc., types of
bushes, selection of bushes and liners, construction of jig and fixture bodies,
use of standard parts (5)
4. Design of fixtures: Principles of fixture design, types of
fixtures- gang, straddle, vertical, slot, string milling fixture etc, selection
of the suitable type, design of milling fixtures, use of setting block,
tennons, T-bolts etc, design of turning fixture for lathe (5)
5. Indexing System: Necessity,
different indexing systems for jigs and fixtures. (2)
SECTION – II
6. Introduction to press tools: Dies, punches, types of presses,
types of dies, simple,
compound, combination and progressive dies, press tools for
operations like blanking,
piercing, drawing, shaving, trimming, etc. (4)
7. Design of die set for cutting operations : Theory of metal
cutting, cutting force and lank
holding force estimation, punch and die clearance, scrap strip
layout, design of punches,
design of dies, pilots, strippers, stock stops, finger stops, auto
stops, center of pressure,
selection of die set. (6)
8. Design of drawing die: blank size determination, no. of draws,
stage wise achievement of drawn component, stage wise component drawings,
drawing radii and clearance, drawing forces, defects in drawing. (6)
9. Miscellaneous dies like- cut off dies, trimming, shaving,
bulging, rubber, lancing, slitting, horn type, side cam dies, bending, forming,
curling dies. (theoretical treatment only) (3)
TERM WORK:
Note: All standard components shall
be selected using relevant IS codes in the following
exercises.
1. At least one industrial visit
to study industrial practices related to the subject and
submission of the visit report.
2. Study of various elements of
jigs and fixtures
3. Design and drawing of two
drilling / reaming jigs. (Details of at least one sheet
showing manufacturing drawing with tolerances, material
specification and heat
treatment.)
4. Design and drawing of two
milling fixtures. (Details of at least one sheet showing
manufacturing drawing with tolerances, material specification and
heat treatment.)
5. Design and drawing of one
progressive die.
6. Design and drawing of one
drawing die.
REFERENCE BOOKS
1. Tool Design, Donaldson, (TMH)
2. Tool Design, Pollock, Reston Pub. Co. Inc.
3. An Introduction to Jig & Tool Design, M.H.A. Kempster,
(ELBS)
4. Fundamentals of Tool Design, Ed. Frank Wilson, ASTME ( TMH )
5. Jigs and Fixture Design Manual, Henirkson (Industrial Press,
NY)
6. A Text Book of Prod. Engineering, P. C. Sharma, S. Chand
7. Handbook of Die Design- Suchy, (McGraw Hill)
8. Die Design Fundamentals, J. R. Paquin, R. E. Crowley,
Industrial Press Inc.
9. Jigs and Fixture, P. H. Joshi, Tata Mc-Graw Hill Pub. Co
10. Techniques of Press Working of Metals by Eary and Reed
11. CMTI Machine Tool Design Handbook, (TMH)
12. Design Data Handbook –PSG College of Tech., Coimbtore
13 Jigs and Fixture Design 5e E.G. Hoffman CENGAGE Learning
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-II
1. TOTAL QUALITY MANAGEMENT
Teaching Scheme: Examination Scheme:
Lectures: 3 Hrs. / Week Theory Paper (4 Hrs): 100 Marks
Practical: 2 Hrs. / Week/ Batch Term work: 25 Marks
SECTION – I
1. Quality basic concepts – various definitions and their implications.
ISO definition of
quality. Quality cost estimation and reduction. (3)
2. Q.A. system: Concept of total quality, role and objectives of
Q.A. Q.A. cycle, process
approach to Q.A. (input-process-output), significance of feedback,
internal customer
approach. (3)
3. Planning for quality – specifications of quality, planning for
specification of processes,
planning through trial lots, information feedback, field
complaints analysis, defect
prevention programs, quality planning with vendors, vendor control
procedures, vendor
rating. (4)
4. Controlling techniques for quality – significance of N-D curve,
SPC, problem solving
QC tools, process capability analysis, six sigma- concept, need,
implementation,
DPMO, gradation. (5)
5. Product and system reliability : Basic concepts, prediction and
evaluation of parallel,
series and combined system reliability, reliability tests ( life
testing , burn-in test,
accelerated life testing) (3)
6. Taguchi’s quality engineering : Taguchi’s quality philosophy,
system design, parameter design, tolerance design, orthogonal arrays, S/N
ration, loss functions. (2)
SECTION –II
7. Principles of TQM : Concept and definition of TQM, principles,
Models, characteristics,
and benefits of TQM. (3)
8. Approaches to TQM : Deming’s approach, Juran’s triology, Crosby
and quality
improvement, Ishikawa’s CWQC, Feignbaum’s theory of TQC. (3)
9. The essential’s of TQM : Customer focus,- customer perception
of quality, customer
satisfaction, Kano’s model of satisfaction, customer retention,.
TQM leadership,- role and commitment and accountability of
leadership, quality policy
and objectives, Organizational structure for TQM, role of HR in
TQM, training
for TQM, developing quality culture. (3)
10 Tools and techniques for TQM: 5-S campaign, TEI, quality
circles, QFD, FMEA; and
FTA, poka-yoke, KAIZEN (5)
11 TQM in service sector : Definition and meaning and service,
problems in defining
service quality, attributes of service quality, SERVQUAL model,
Implementing TQM
in service industries, measurement system for service quality. (3)
12 ISO 9001:2008 series of standards : Structure of ISO 9001:2008
series standards,
clauses, contents, interpretation and implementation, audit (3)
REFERENCE BOOKS
1. Grant E.L. Statistical Quality Control- McGraw Hill Book Company,
New York.
2. Juran J.M & Gryna Quality Planning and analysis
3. Total Quality Control Feigenban - McGraw Hill Book Company, New
York
4. ISO-9000- Preparing for registration Lamprecht
5. Implementing Total Quality-Joe Culle
6. ISO9000 Quality System – Dalela
7. SQC-R.C.Gupta.
8. Dale H. Besterfilee, “Total Quality Management”, Pearson
Education
9. Tapan Bagchi, “ Taguchi Methods Explained”.
10. Amitava Mitra, “ Fundamentals of Quality Control and
Improvement”, Pearson
Education
11. Introduction to Statistical Quality Control Montgomery Willey
India
12. Quality Control by Kulkarni Bewoor Willey India
13. Total Quality Management by Senthil Arasu/Paul SCITECH
publication
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-II
2. NANO TECHNOLOGY
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Course Objective:
To understand the concept and context of nanotechnology, the
top-down and bottom-up
approaches to nanotechnology, nano-manufacturing methods and
design concepts of nanoscale products or processes.
1. Introduction to Nanotechnology: What
is Nanotechnology, Nanoscale, consequences of the nanoscale for technology and
society, Beyond Moore’s Law (06)
2. Technologies for the Nanoscale: Top-down
versus bottom –up assembly, Visualisation, manipulation and characterization at
the nanoscale, proximal probe technologies, Selfassembly, Biomimetic systems.
Assemblers. ( 08)
3. Nanoscale Manufacturing : Nanomanipulation,
Nanolithography. (08)
4. Nanoscale Material and Structures: Nanocomposite, Safety issues with nanoscale
powders, Quantum wells, wires dotes and nanoparticles. (08)
5. Applications : Applications in
Energy, Tribology, Informatics, medicine, etc… (07)
Tutorial:
It shall consist of six exercises based on the syllabus.
Reference Books:
1. David ferry, transports in nanostructures, Cambridge University
Press, 2000.
2. Engine of Creation, K E Drexler, Oxford Paperbackes, New York
(1996).
3. Y.Imry, Introduction to Mesoscopic Systems, Cambridge
University Press, 1997
4. S.Datta, Electron Transport in mesoscope Systems, Cambridge
University Press, 1995
5. H.Grabert and M. Devoret, Single Charge Tunneling, Plenum
Press, 1992.
6. Beenaker and Van Houten, Quantum Transportun Semiconductor
Nanostructures, in
solid state physics v. 44, eds. Ehernreich and Turnball, Academic
Press, 1991.
7. P.Rai- Choudhury, Handbook of Microlithography, Micromachining
&
Microfabrication, SPIE,1997.
8. Nanosystems: Molecular Machinery, Manufacturing &
Computation, K E Drexler,
(Wiley),1992, ISBN 0471575186
9. Our Molecular Furure: How Nanotechnology, Robotics, Genetics
and Artificial
Intelligence will transform the World, Prometheus (2002) ISBN
1573929921
10. Web Resources: www.nanotechweb.org, www.nano.gov, www.nanotec.org.uk
11. Principles of Nano Technology by PhaniKumar SCITECH
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-II
3. INDUSTRIAL PRODUCT DESIGN
Lecture : 3 Hrs/week Theory : 100 Marks
Practical: 2 Hrs/week Term Work : 25 Marks
SECTION – I
1. Introduction: Challenges of product development; Successful
product, (2)
development Quality aspect of product design; Market Research;
Survey.
2. Identify customer needs and Product Planning Processes. Product
specifications: (4)
Process of setting specifications. Concept
generation–selection–testing.
3. Product Architecture: Implication of architecture, establishing
the architecture, (4)
related system level design issue. Industrial design : Overview
4. Design for manufacturing and assembly - tolerancing, design of
gauges; Design (6)
for environment; Robust design. Prototyping; Engineering
Materials. Concurrent engg..
Product costing, value engineering, Aesthetic concepts; visual
effects of form and
colour.
5. Product data management. (2)
6. Innovation and Creativity in Product Design. Case Studies. (2)
SECTION – II
7. Ergonomics and Industrial Safety (EIS) : (3)
Introduction - General approach to the man-machine
relationship-workstation designworking position and posture. An approach to
industrial design - elements of design structure for industrial design in
engineering applications in manufacturing systems.
8. Control and Displays: configurations and sizes of various
controls and (2)
displays;- design of controls in automobiles, machine tools etc.,
- design of instruments
and controls.
9. Ergonomics and Manufacturing: Ergonomics and product design;
ergonomics in (4)
automated Systems; Anthropomorphic data and its applications in
ergonomic design;
limitations of anthropomorphic data - use of computerized
database.
10. Safety & Occupational Health and Environment: Application
of Ergonomics in (2)
industry for Safety, Health and Environment Control;
11. Prevention and specific safety measures for manufacturing and
processing (3)
industry – safety in the use of machines, precaution for certain
chemical types of
industry like foundry, process industry, chemical industry.
12. Environmental Safety and ISO 14000 Systems. (3)
13. Occupational Health – Health and Safety consideration;
Personal protective (3)
protective Equipment.
TERM WORK:
Eight assignments with case studies on above topics using modeling
softwares like
CATIA V5, ProE, SolidWorks and UniGraphics.
REFERENCES:
1. Product Design and Development: Karl T. Ulrich, Steven G.
Eppinger; Irwin McGraw
Hill
2. Product design and Manufacture: A.C. Chitale and R.C. Gupta;
PHI
3. New Product Development: Tim Jones, Butterworth, Heinemann,
Oxford, 1997.
4. Product Design for Manufacture and Assembly: Geoffrey Boothroyd,
Peter Dewhurst
and Winston Knight.
5. Product Design : Otto and Wood; Pearson education.
6. Industrial Design for Engineers: Mayall W.H, London, Hiffee
books Ltd, 1988
7. Applied Ergonomics, Hand Book: Brian Shekel (Edited)
Butterworth Scientific, London
1988.
8. Introduction to ergonomics – R.C. Bridger, McGraw Hill Pub.
9. Human Factor Engineering – Sanders & McCormick, McGraw Hill
Publications.
10. Product Design – Kevin Otto, Kristin Wood Pierson Education
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-II
4. HUMAN VALUES AND PROFESSIONAL ETHICS
Teaching Scheme Examination Scheme
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
COURSE OBJECTIVES
The objective of the course is an exploration of human values
which go into making a
good human being, a good human society and a good life. The
context is the work life and the personal life of modern Indian professionals.
The movement to identify and promote the values shared by societies around the
world is relatively new. It is only in recent years as globalization extended
its reach to even remote corners of the earth that the need to refocus and
build upon what we as a human society have in common, has become apparent.
Increased contact between peoples and nations enhances awareness of our kinship
and the shared code of ethics and conduct that underlies all civilization. It
is the Human values that we must now promote to create a common vision and
means for moving forward toward a more peaceful and sustainable world.
The course also aims to have students appreciate the vastness of
the Universe and the
wonder of its parts, and the philosophical significance of this
for improving the quality of
human life through value clarification.
Course Objectives and Student Learning Outcomes: Students will demonstrate in
college level writing
• an understanding of the role of
cognitive and moral values in world views, by discussing
and writing about the ethical implications of modern scientific
and technological results
• a recognition of the difference
between matters of fact and matters of value, while
understanding the important ways in which facts influence value
assessments and how
value judgments shape our vision of "the facts"
• an understanding of ethical
methodologies and competency in ethical deliberation on
rationally applying these methodologies to contemporary ethical
questions related to
scientific progress and technological power
• why ethics plays an important
role in science and technology
1. HUMAN VALUES 10
The value-crisis in the contemporary Indian Society-The Indian
system of values-Values in the Indian constitution -Aesthetic values:
perception and enjoyment of beauty-Relative and absolute values-Morals- Values and Ethics –
Integrity-Service – Work Ethic – Service Learning – Civic Virtue – Respect for
Others –Respect for the Environment-Quest for Living Peacefully and
happily–Attitude of Nonviolence-Innate dignity for human life – Bring out the
best in oneself -caring – Sharing – Honesty – Courage – Valuing Time –
Co-operation – Commitment– Empathy – Self-Confidence – Character – Spirituality
2. ENGINEERING ETHICS 8
Senses of 'Engineering Ethics' - variety of moral issued - types
of inquiry - moral dilemmas - moral autonomy - Kohlberg's theory - Gilligan's
theory - consensus and controversy – Models of Professional Roles - theories
about right action - Self-interest - customs and religion - uses of ethical
theories.
3. ENGINEERING AS SOCIAL EXPERIMENTATION 8
Engineering as experimentation - engineers as responsible
experimenters - Research Ethics -codes of ethics - a balanced outlook on law -
the challenger case study
4. SAFETY, RESPONSIBILITIES AND RIGHTS 8
Safety and risk - assessment of safety and risk - risk benefit
analysis and reducing risk – The Government Regulator’s Approach to Risk- the
three mile island, chernobyl and Bhopal case studies. Collegiality and loyalty
- respect for authority - collective bargaining - confidentiality - conflicts
of interest - occupational crime - professional rights - employee rights –
Intellectual Property Rights (IPR) - discrimination.
5. GLOBAL ISSUES 8
Multinational corporations - Business Ethics -Environmental ethics
–Role in Technological Development- computer ethics - weapons development -
engineers as managers-consulting engineers-engineers as expert witnesses and
advisors -Honesty-moral leadership-sample codes of Ethics like ASME, ASCE,
IEEE, Institution of Engineers (India), Indian Institute of Materials
Management, Institution of electronics and telecommunication engineers (IETE), India,etc.
Term Work
The term work should be carried out with the methodology of
lectures, group discussions(based on case studies), movies, field visits,
essays and student self investigation sessions.
1. 10 modules based on the topics mentioned above and Including –
_ Group Discussions on Case
Studies with report/Essays
_ Undergoing the Art of Living
Part I course on Awareness of Human Values conducted
by Vyakti Vikas Kendra ,Bangalore in assistance with INTERNATIONAL
ASSOCIATION OF HUMAN VALUES.
_ Visits (with report writing) to
Public Institutes like Municipal Corporation,ZP,Co op
organizations, social clubs like charitable trusts, Waste
Water/Air Pollution Control
Plant, Slum Areas etc.
_ Conduction of Health and Hygiene
Awareness Camp for Society
_ Study of economic status of the
society –Survey data collection, analysis and any
suggestions.
_ Study of impacts of technology
on society.
TEXT BOOKS
1. Professional Ethics and Human Values by M.P. Raghavan,Scitech
Publications (India)
Pvt Ltd
2. Human Values and Professional Ethics by Jayashri and Suresh B S
,S Chand
Mike Martin and Roland Schinzinger,
3. “Ethics in Engineering”, McGraw-Hill, New York 1996.
Govindarajan M, Natarajan S,
Senthil Kumar V. S,
4. “Engineering Ethics(Including Human Values)”, Prentice Hall of
India, New Delhi,
5. A Textbook on Professional Ethics and Human Values by
Naagarazan, R.S. ,New Age
Publishers
6. Professional Ethics and Human Values by A Alavudeen,R Kalil
Rahman M
Jayakumaran ,Laxmi Publisher
7. Understanding Human Values :Individual and Societal by Milton
Rokeach ,Fres Press
Publication
8. Human Values by A N Tripathy, New Age International
9. A Foundation Course in Value Education by R R Gaur, R
Sangal,2009
10. Science and humanism by P L Dhar and R R Gaur, Commonwealth
Publishers
11. “Wisdom for The New Millennium” by H.H .Sri Sri Ravishankarji,
founder Art Of
Living ,Vyakti Vikas Kendra Bangalore.
12. “The Monk Who Sold his Ferrari” by Robin Sharma, Jaico
Publishing House
13. “Mega Living” by Robin Sharma, Jaico Publishing House
14. The Story of Phillosophy by W,Durant
REFERENCES
1. Charles D. Fleddermann,
“Engineering Ethics”, Pearson Education / Prentice Hall, New
Jersey, 2004 (Indian Reprint now available).
2. Charles E Harris, Michael S.
Protchard and Michael J Rabins, “Engineering Ethics –
Concepts and Cases”, Wadsworth Thompson Leatning, United States,
2000 (Indian
Reprint now available)
3. John R Boatright, “Ethics and
the Conduct of Business”, Pearson Education, New Delhi,
2003.
4. Edmund G Seebauer and Robert L
Barry, “Fundamentals of Ethics for Scientists and
Engineers”, Oxford University Press, Oxford,
5. Prof. (Col) P S Bajaj and Dr.
Raj Agrawal, “Business Ethics – An Indian Perspective”,
Biztantra, New Delhi, (2004)
6. Science and the Human Prospect,
by Ronald C. Pine
7. Brave New World, Aldous Huxley
8. Society ,Environment and
Engineering by H R Mukhi , Birla Publications ,New Delhi
9. Society, Environment and
Engineering by R Agor, Satya Prakashan,New Delhi
Relevant CDs ,Movies ,Documentaries and Websites
www.onlineethics.org, www.storystuff.com, www.iahv.org, www.5h.org, www.artofliving.org
Al Gore ,An Inconvinient Truth, Paramount classics USA
Charlie Chaplin, Modern Times ,United Artits ,USA
IIT Delhi, Modern Technology-The Untold Story
B.E.(MECHANICAL) PART– I(REVISEDW.E.F.2010-11 FROM
JULY 2010)
6 SEMINAR
Teaching Scheme Examination Scheme
Practical: 2 Hrs/ Week Term work: 50 Marks
Topic
Any topic of mechanical engineering application may be a seminar
topic.
The seminar may be based on proposed project work also.
Seminar Load:-
Maximum 9-10 students in one batch, Maximum 9-10students shall
work
under one Faculty Member Group of one student is not allowed under
any
circumstances
Seminar Term :
Seminar report should be of 25 to 35 pages. For standardization of
the
seminar reports the following format should be strictly followed.
1 Page size : Trimmed A4
2. Top Margin : 1.00 Inches
3. Bottom Margin : 1.32 Inches
4. Left Margin : 1.5 Inches
5. Right Margin : 1.0 Inches
6. Para Text : Font - Times New Roman; 12 point
7. Line Spacing : 1.5 Lines
8. Page Numbers : Right aligned and in footer.
9.Headings :
Font Times New Roman; 12 point
New Times Roman, 14 point, Boldface
10. Certificate : All students should attach standard format
Of The entire seminar should be do cumented as one chapter.
References should have
the following format
For Books:
1. “Title of Book”; Authors; Publisher; Edition;
For Papers:
1. “Title of Paper”; Authors; Conference Details; Year. Marks
1 Seminar Report: 25
2 Presentation: 25
All students have to present their seminars individually in front
of the faculties
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
7. PROJECT
Teaching Scheme: Examination Scheme:
Practicals 3 Hrs/ Week Term work: 50 Marks
1. To provide an opportunity to students do work independently on
a topic/ problem/
experimentation selected by them and encourage them to think
independently on their own to bring out the conclusion under the given
circumstances of the curriculum period in the budget provided with the guidance
of the teachers.
2. To encourage creative thinking process to help them to get
confidence by planning and carrying out the work plan of the project and to
successfully complete the same, through observations, discussions and decision
making process.
Project Load:
Maximum 9-10 students in one batch, involving 03 groups Maximum
9-10 students shall
work under one Faculty Member Group of one student is not allowed
under any circumstances.
Project Definition:
Project work shall be based on any of the following:
1. Fabrication of product/ testing setup of an experimentation
unit/ apparatus/ small
equipment, in a group.
2. Experimental verification of principles used in Mechanical
Engineering Applications.
3. Projects having valid database, data flow, algorithm, and
output reports, preferably
software based.
Project Term Work: 50 Marks
The term work under project submitted by students shall include
and assessment of
Term work should be as below
Marks :
1 Work Diary: 10 Marks for Semister VII
Work Diary maintained by group and countersigned by the guide
weekly.
The contents of work diary shall reflect the efforts taken by
project group for
1. Searching suitable project work
2. Brief report preferably on journals/ research or conference
papers/ books or literature
surveyed to select and bring out the project.
3. Brief report of feasibility studies carried to implement the
conclusion.
4. Rough Sketches/ Design Calculations, etc.
2 Synopsis: 15Marks
The group should submit the synopsis in following form.
1. Title of Project
2. Names of Students
3. Name of Guide
4. Relevance
5. Present Theory and Practices
6. Proposed work
7. Expenditure
8. References
The synopsis shall be signed by the each student in the group,
approved by the guide
and endorsed by the Head of the Department
B.E. (MECHANICAL) PART – I (REVISED W.E.F. 2010-11
FROM JULY 2010)
8 INDUSTRIAL TRAINING REPORT
Teaching Scheme Examination Scheme
Practical: 00 Hrs/ Week Term work: 50 Marks
Training Report:
Maximum fifteen students in one batch, involving three groups of
maximum
five students, shall work under one teacher. The same group shall
work for
project under the same guide. However, each student should have
different
industrial training and its presentation.
The report should be of 20 to 30 pages. For standardization of the
report
the following format should be strictly followed.
1 Page size : Trimmed A4
2. Top Margin : 1.00 Inches
3. Bottom Margin : 1.32 Inches
4. Left Margin : 1.5 Inches
5. Right Margin : 1.0 Inches
6. Para Text : Font - Times New Roman; 12 point
7. Line Spacing : 1.5 Lines
8. Page Numbers : Right aligned and in footer.
9. Headings :
Font Times New Roman; 12 point
New Times Roman, 14 point, Boldface
10. Certificate : All students should attach standard format
Of The entire report should be documCeerntitfeidca ates aosn ed
ecshcraipbteedr .b yR ethfe rences should have the
following format
1. “Name of Industry with address along with completed training
certificate”
2. Area in which Industrial training is completed
MARKS
Training Report: 10
Presentation: 15
All students have to present their reports individually before the
faculties
B. E. (MECHANICAL) PART – II( W.E.F. 2010-11 FROM
JULY 2010)
1 MECHATRONICS
Lectures: 3 hrs./week Theory paper: 100 marks
Practical: 2 hrs./week Term work : 25 marks
OralExam.: 25 marks
SCOPE OF THE SUBJECT
Mechatronics emphasizes the necessity of integration and
interaction among different branches of engineering. Mechatronics philosophy
challenges traditional engineering thinking and practices.
Mechatronics implementation involves a team activity and crossing
boundaries between
conventional engineering disciplines.
PREREQUISITES
Knowledge of Mechanical, Electronic, Instrumentation and
measurement systems.
COURSE OBJECTIVES
1. To produce competent Mechanical engineers with comprehensive
knowledge of Mechatronics to enable them to apply the relevant knowledge and
technologies for the design and realization of innovative systems and products.
2. To supply qualified personnel to meet the requirement of
specialist in Mechatronics.
3. To prepare Mechanical Engineering students for advanced
graduate studies in Mechatronics, Manufacturing engineering and related field.
LEARNING OBJECTIVES
1. Understand the importance of integration of Mechanical,
Electronics and Control in the design of Mechatronics system.
2. Understand key elements of sensors and transducers and
interfacing the same with problem under consideration through PLC.
SECTION – I
1. Introduction:
Introduction to Mechatronics: What is mechatronics, Mechatronic
systems, Measurement systems, Control systems, micrpoprocessor based
controllers, multi discipline scenario
2.Signal Conditioning:
Signal conditioning process, Operational amplifier (inverting
amplifier, non-inverting amplifier, summing, integrating amplifier),
protection, filtering, data acquisition, multiplexer, analog to digital
converter (ADC), digital to analog converter (DAC).
Oscillators to generator sinusoidal, square, triangular and
impulse waveforms, 555 timer, sample and hold, analog to digital and digital to
analog converters, multiplexing. Interfacing input output ports, serial and
parallel interfacing requirements, buffers, handshaking, polling and interrupts.
3. Transducers & Sensors:
Position Sensors: Limit switch, photoelectric switches, proximity
sensors, pneumatic limit
valves and backpressure sensors, pressure switches, resolvers,
incremental & absolute
encoders, decoders & relays. Displacement: Potentiometer
sensors, LVDT, capacitive displacement sensors. Velocity sensors: Tachogenerator,
use of encoders
4. Digital circuits:
Digital logic, number systems, logic gates, Boolean algebra,
application of logic gates, sequential logic, flip flop, D flip flop, JK flip
flop, Master slave flip flop.
5. Microprocessor and Microcontroller:
Microcontroller: Comparison between microprocessor and micro
controller,
organization of a microcontroller system, architecture of MCS 51
controller, pin diagram of 8051, addressing modes, instruction types and set,
Applications.
SECTION II
6. Programmable Logic Controllers(PLC):
Introduction, definition and history of PLC, PLC system and
components of PLC input output module, PLC advantages and disadvantages.
7. Ladder diagram & PLC programming fundamentals:
Basic components and other symbols, fundamentals of ladder
diagram, machine control
terminology, update – sole ladder – update, physical components
Vs. program components, light control example, internal relays, disagreement
circuit, majority circuit, oscillator, holding (sealed or latches) contacts,
always ON always OFF contacts, Nesting of ladders.
8. PLC programming:
PLC input instructions, outputs, coils, indicators, operational
procedures, contact and coil input output, programming example, fail safe
circuits, simple industrial applications.
9. PLC Functions:
PLC timer functions – Introduction, timer functions, industrial
applications, industrial process timing applications
PLC control functions – PLC counters and its industrial applications
10. Mechatronics systems:
Traditional Vs Mechatronic Design, Case studies of Mechatronic
systems designs, like piece counting system, pick and place manipulator, simple
assembly task involving a few parts, part loading / unloading system, automatic
tool and pallet changers etc.
Term Work
1. One assignment on “Introduction to PLC”
2. Three experiments on PLC programming examples for simple
sequence control.
3. Two experiments based on Timers
4. Two experiments based on Copunters.
5. One assignment on Microprocessor.
6. One assignment on Microcontroller.
7. Industrial visit to study Mechatronic system application &
submission of visit report.
Note: The Measurement and Control
Laboratory is expected to have a simple 10 input 10 output
PLC and a economic plug and play robot of ready to assembly in
different configurations.
Reference Books
1. Mechatronics – W. Bolton, Pearson education
2. Mechatronics – Mahalik, TATA McGraw Hill
3. Microprocessor 8085 – Gaokar
4. Mechatronics – Appu Kuttam, Oxford publications
5. Automated Manufacturing systems, S. Brain Morris, McGRaw Hill
6. Introduction to PLC programming, NIIT, P
7. Programmable logical controller, Hackworth % Hackworth, Pearson
Education
8. Programmable logical controller, Reis Webb, Prentice Hall
9 Mechatronics and Microproceesor by Ramchandran Willey India
10 Mechatronics : Integrated Mechanical Electronic System by
Ramchandran Willey India
11. Programmable logical controller,3e Gary Dunning Cengage
Learning
12.Mechatronics Source Book by N C Braga Cengage Learning
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
2. INDUSTRIAL ENGINEERING
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
SECTION-I
1 Introduction to Industrial Engineering: 01
Definition, Scope, Responsibilities, Important contributors to
I.E., Tools and
techniques of I.E.
2 Production Planning and Control: 08
Sales Forecasting – Need, types and various techniques, Elements
of PPC,
PPC activity cycle. Planning
–
Pre-requisites of process planning, Steps in process planning,
Factors affecting process
planning, Process selection, Machine selection, Make or buy
decision,
Line Balancing, Plant capacity, Machine capacity and machine
selection planning.
Loading & Scheduling –
Machine loading procedure, Concept of scheduling, Single machine
scheduling,
Job shop scheduling, n jobs one machine, n jobs two machines, two
jobs –m machine cases. Production Control –
Control function and its objectives, mechanism used in effecting
production control
3 Inventory Control: 03
Different Models And Inventory Systems, MRP, Make or Buy decision.
4 Network Techniques: 04
CPM and PERT, Construction, Time cost trade off.
5 Facility Planning: 04
Location model, Principles & objectives of plant layout. Tools
& techniques of PL
Material Handling: 02
Objectives and principles, Material Handling Equipments,
Selection, types and
application.
SECTION-II
6 Productivity: 02
Concept, objectives, Factors affecting productivity, Tools and techniques
to
improve productivity, Productivity measurement. – Models.
7 Value Engineering: 03
Concept, steps, Applications.
8 Work Study: 10
Definition, objectives and steps Method Study: Recording
techniques, principles of
motion economy, Cases on methods improvement. Work Measurement:
Steps,
Performance rating, various techniques, Allowances and standard
time estimation, Work
Sampling, MOST Techniques.
9 Human Factors Engineering: 02
Physiological work measurement Scope, application, Load analysis.
SHIVAJI UNIVERSITY KOLHAPUR Page 31
10 Job Evaluation and Merit
Rating- Methods, Incentive schemes. 03
Term Work
Part I - Case Study (Minimum Six)
1 Forecasting Methods (At least 2 problems each on Moving average,
Exponential
smoothing, Linear Regression)
2 Aggregate Planning- Problems on managing non-uniform demand.
Linear Programme
approach
3 ABC Analysis.
4 Inventory Model (At least 2 problems each on Basic, shortage,
production and quantity
discount)
5 Plant Layout problems. (At least 3 problems)
6 Problems on Productivity measurement.
7 Case study on Value analysis concept
8 Standard time estimation by different methods.
9 Case on Job Evaluation and merit rating.
Part II - Experiments (All Experiments)
1 Stop watch time study for an operation.
2 Application of work Sampling technique in work area.
3 Physiological work measurement using Bicycle Ergometer.
4 Work place layout using pin board assembly.
Reference Books:
1 Maynard. H.B – Industrial Engineering Hand Book, McGraw Hill
Book Company, New
York
2 J. Adam EE , RJ Ebert Production and operation management-
Prentice Hall Englewood Cliff, N.
3 Riggs. J L - Production system, planning, analysis and control –
John Weily and sons,
New York
4 David Sumanth, Productivity Engineering and Management- Tata
McGraw Hill, New
Delhi.
5 Bernes, R.L Motion and Time Study, Design and measurement of
Work, John Weily India
6 Introduction to Work Study- International Labour Office Geneva
7 L.C.Jhamb- Work study and Ergonomics.
8 Miles Lawrence- Techniques of value Analysis and engineering-
McGraw Hill Book
Company, New York.
9 Samuel Eilon – Production planning and control.
10 James Dilworth, Production and operation management- McGraw
Hill Book Company, New York.
11 Martand Telsang Industrial Engineering and Production Management-
S Chand & Co,
New Deldi.
12 Srinath. L.S. – PERT and CPM.
13 Industrial Engineering and Management by Vishwanath SCITECH
publication
14 Industrial Engineering and Management by Arun Vishwanath
SCITECH publication
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
3. POWER ENGINEERING
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Oral exam. : - 25 marks
1. Introduction: Resources and
development of power in India, NTPC, NHPC and their role
in Power development in India, Power generation in Private sector,
Power distribution,
National Grid, Indian Electricity Grid Code, Structure of IEGC,
Operating Policies and
Procedures, Present Power position in India and Maharashtra.
2. Power Plants: Different types
of power plants – Thermal, Hydro, IC Engine, Gas
Turbine, Nuclear and their characteristics, Combined Cycle, Pumped
storage, Compressed
Air storage power plants and their characteristics. Comparison of
Power plants with
respect to various parameters. Issues in Power plants.
3. Future trends in Power plants: MHD
- steam plant, Fuell Cells, Thermoelectric Steam
Plant, Thermiionic Steam plant.
4. Power Plant Analysis:
Load Curves, Load duration curves, Performance and operational
characteristics of power plants, Peak load, Intermediate load and
Base load plants and
their characteristics, Input output characteristics of power
plants, Economic division of
between Bas load plant and peak load plants. Cost of energy
generation, Tariff methods.
5. Power Plant Instrumentation:
Steam pressure and steam temperature measurement,
Flow measurement of feed water, fuel, air and steam with
correction factor for
temperature, Speed measurement, Level recorders, Radiation
detector, smoke density
measurement ,dust monitor.
Flue gas oxygen analyser – analysis of impurities in feed water
and steam – dissolved
oxygen analyser – chromatography – PH meter-fuel analyser –
pollution monitoring
instruments.
6. Energy Storage Technology Descriptions : Pumped Hydroelectric Storage, Compressed
Air Energy Storage, Battery Technologies - Traditional and
Advanced, Flow Batteries,
Flywheels, Superconducting Magnetic Energy Storage,
Supercapacitors/Ultracapacitors,
Energy Storage Technology Comparisons, Functional Comparison, Cost
Comparison
7. Environmental Aspects in Power generation: Different pollutants due to power plants
and their effects on ecology, control over different types of air
and water pollution.
Pollution control devices, National and International protocols on
pollution control.
8. Safety & Maintenance in Power Plants: Operation and Maintenance procedures of
Power plants, Operator training, Safety during selection of power
plant equipment -safety
in commissioning of thermal power plant equipments, hydrostatic
and air leakage test,
acid and alkali cleaning, safety in auxiliary plants. Cooling
water system, Safety in
maintenance of power plants.
9. Energy Audit and Energy Marketing: Selling and marketing in India, Creating supply
chain in India, Successfully working with business and virtual
teams in India, Navigating
the financial, legal and accounting environment, Human Resources
issues, India’s
business culture in transition.
TERM WORK:
1. Study of National & International Grid, Indian Electricity
Grid Code
2. Study of combined cycle gas based and coal based Power plant.
Analysis of various
performance parameters of CC Power Plant.
3. Study of typical load curve of Hydro/ Thermal power plant and
its performance analysis.
4.. Economic Analysis of power plants and selection of plant for
power generation
(Numerical Treatment).
5. Study of Power plant Instrumentation
6. Study of Heat Exchangers used in Power Plant
7. Visit to Power Plant
8. Study of pollution control devices.
BOOKS:
1. Modern Power Station Practice, Vol.6, Instrumentation, Controls
and Testing, Pergamon Press, Oxford, 1971.
2. John V Grimaldi and Rollin H Simonds., Safety Management
3. Power Plant Technology – M.M.El Wakil Mc Graw Hill. Int
edition.
4. Power Plant Engineering by Domkundwar and Arora, Dhanpatrai and
Sons.
5. Grainger John J, and Stevenson Jr.. W.D. Power System Analysis,
McGraw Hill 1994
6. L.K.Kirchmeyer, Economic operation of power systems, John Wiley
and Sons, 1993.
7. C.A.Gross Power system analysis, John wiley and Sons, Inc.1986.
8. John Weisman & L.E. Eckart, Modern Power Engineering,
Prentice hall, 1985
9. A course on Power Plant Engineering By Ramlingam SCITECH
publication
10. Power Plant Engineering By Ramlingam SCITECH publication
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
4. ELECTIVE-III
1. PRODUCTION MANAGEMENT
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
1. Production function (02)
Production types, objectives and scope of Production Management,
Production Planning
and Control (PPC)- Definition, elements, Activities of production
planning and
production control Interrelationship of Production with other
functional areas
2. Production/ Operation strategy (02)
Relevance, strategy formulation process, order qualifiers and
order winners, attributes,
strategic options for Operations- Product portfolio, process
technology, capacity, Supply
chain issues, Measures to ensure Optional Excellence, WCM
practices
3. Product Design and Development (04)
Role of Product Development in competitiveness, Product Life Cycle
(PLC), Product
Development Process. Tools for efficient product development-
FMECA, concurrent
engineering, Design for Manufacturing Mass Customization
4 Process Design (05)
Determinants of process characteristics- volume, variety, flow.
Types of processes, choice of Process, equipment selection, use of BEP in
selection process- product matrix.
Estimation of Demand- Time series Analysis and causal forecasting
techniques, Least
square method, moving average and exponential smoothing
forecasting method
5. Capacity and Aggregate Planning (05)
Capacity- Definition, Measure of Capacity, capacity strategies
Estimation of number of
machines, Overcapacity and under capacity factors, Aggregate
Planning, Aggregate
Planning Strategies, Pure and mixed strategies, Use of
transportation model approach to
aggregate planning
6. Scheduling of Operations (04)
Loading, scheduling and sequencing, Priority sequencing rules.
Sequencing problems, n
job 2 machines, n Job ‘3’ machines. Forward and backward
scheduling, critical ratio
scheduling, Production Control Activities
7. Supply chain Management (04)
Concept of supply chain and supply chain management, Manufacturing
supply chain,
SCM activities Supply chain strategies, Managing supply chain,
Measuring supply chain
performance
8. Just in Time and Lean Manufacturing (03)
JIT Philosophy, origin and core logic of JIT, Elements of JIT,
Kanban System- Design of
Kanban containers, JIT. Implementation issues and performance,
Lean Manufacturing-
Pillars, features and process comparison with Traditional
Manufacturing.
9. Total Productive Maintenance and Replacement (04)
Introduction, Definition, six big losses, stages of maintenance,
pillars stages of TPM
Development, Overall Equipment Effectiveness (OEE) computation
Replacement - need,
Replacement of items whose maintenance cost increases with time
(with and without
considering time value of money), Replacement of items that fail
suddenly
10. Manufacturing Optimization (03)
Evaluation criteria for Production/ Manufacturing Optimization,
Single stage
Manufacturing Optimization. Basic Mathematical models, Single
stage manufacturing
model as a function of machine speed, Determining machine Speed,
unconstrained
optimization
11. Managerial / Engineering Economics (04)
Demand and supply, Demand curve and supply curve, equilibrium of
supply and demand, elasticity of demand Production function, factors of
production, Isoquants, Least cost Combination for a given output, Theory of
firm Introduction, Review of Time value of money, cash flows, evaluation
criteria for capital projects (investment)- Payback
period, IRR and BCR.
TERM WORK
1. Case study on interdepartmental relationship in a business
organization
2. Case study on Design for Manufacturing
3. Process selection, case study and choice of process and
Equipments BEA technique
4. Problems on Demand Forecasting
5. Problems on Aggregate Planning strategies
6. Problems on Job sequencing- Single Machine Scheduling, Priority
sequence and
Johnson’s Algorithm
7. Case study on implementation of JIT in a small/ medium company
8. Problems on Estimate OEE and Replacement Analysis
9. Exercises on Manufacturing Optimization
10. Exercises on Analysis tools in Project appraisal
REFERENCES:
1. Joseph. Operations Management 3e McGraw Hill International
2. Martand Telsang – Industrial Engineering & Production
Management, S Chand &
Company New Delhi (2009)
3. Buffa. Elwood modern Production and operations Management, 7e
Willey Eastern
4. Krajewski & Ritzman, Malhotra– Operation
Management,processand Value chain 8th
Edition Pearson Education
5. Ashwathappa, Bhat Production and operations Management,
Himalaya Publishing
6. Kitsundo .Hitomi manufacturing system Engineering Viva publishing
7. Miles Lawrence – Techniques of Value Analysis & Engineering
8. Mahadevan B Operation Management Theory and Practice Pearson
Education (2007)
9. M.T. Telsang Production Management S.Chand and Company New
Delhi
10. Design and Analysis of Lean Production System by ASKIN Willey
India
11. Manufacturing Process Planning and System Planning by Bewoor
Willey India
12. Project Management: Planning and Control Techniques By Burake
Willey India
13. Production and Operation Management by Tripathi SCITECH Publications
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
4 ELECTIVE-III
2. MICRO-ELECTRO-MECHANICAL SYSTEMS (MEMS)
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Course Objective:
To understand the concepts and context of MEMS .
1. Introduction: Micro-Electro-Mechanical
Systems (MEMS), Microsystems and their
products, miniaturization, applications, mechanical MEMS, thermal
MEMS, micro-opto
electro-mechanical systems, magnetic MEMS, radio frequency (RF)
MEMS (4)
2. Micro Fabrication Processes & Materials: Materials for MEMS – substrate and wafers,
silicon as a substrate material, crystal structure, single crystal
and polycrystalline, mechanical properties, silicon compounds, silicon
piezo-resistors, gallium arsenide, quartz, piezo-electric crystals, polymers,
packaging materials; Fabrication Processes – Bulk micromanufacturing, photolithography, photoresists,
structural and sacrificial materials, X-ray and electron beam lithography, Thin
film deposition – spin coating, thermal oxidation, chemical vapour deposition
(CVD), electron beam evaporation, sputtering; Etching – wet etching, dry
etching; Surface micromachining, bulk vs. surface micromachining; LIGA process
and applications (9)
3. Microsensors and Actuators: Sensing
and actuation, Chemical sensors, Optical sensors, Pressure sensors, Thermal
sensors – thermopiles, thermistors, micromachined thermocouple probes, thermal
flow sensors, MEMS magnetic sensor, magnetic actuators – optical switches and
bidirectional microactuators, Piezoelectric material as sensing and actuating
elements – capacitance, piezomechanics, Piezoactuators as grippers,
microgrippers, micromotors, microvalves, microaccelerometers, shape memory
alloy based optical switch, thermally activated MEMS relay, microspring thermal
actuator, data storage cantilever. (9)
4. Microsystem Design: Design
considerations, Design constraints and selection of materials, selection of
manufacturing process, selection of signal transduction technique, Simulation based
Microsystem design, need of simulation tool, use of finite element method,
various simulation platforms, (6)
5. Micro Fluidic Systems (MFS): Devices,
applications, considerations for MFS, fluid
actuation methods, microfluid dispensers- microneedle, microfluid
gates, micropumps, (4)
6. Microsystems Packaging: Mechanical
packaging of microelectronics, Microsystem
packaging – considerations and levels, interfaces in Microsystem
packaging, packaging
technologies, three dimensional packaging, Assembly of
microsystems, (6)
TERM WORK
It shall consist of EIGHT
exercises based on the syllabus.
REFERENCE BOOKS:
1. Bharat Bhushan (Ed.), (2004), Handbook of Nanotechnology,
Spinger-Verlag Berlin
Heidelberg New York, ISBN 3-540-01218-4
2. Hsu, Tai-Ran, (2003), MEMS & MICROSYSTEMS: Design &
Manufacture, TMH,
ISBN:0-07-048709-X
3. Mahalik, N. P., (2007), MEMS, TMH, ISBN: 0-07-063445-9
4. Mahalik, N.P. (Ed.) (2006), Micromanufacturing &
Nanotechnology, Springer India Pvt.
Ltd., ISBN: 978-81-8128-505-8 (Distributed by New Age
International, New Delhi)
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
4. ELECTIVE-III
3. MACHINE TOOL DESIGN
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
SECTION-I
1 General Principles Of Machine Tool Design: 07
General requirements of machine tool design, Engineering design
process applied to
machine tools, Layout of machine tools, Mechanical/hydraulic
transmission elements,
Working and auxiliary motions in machine tools.
2 Design Of Machine Tool Drives: 06
Types of Speed and feed regulation, Classification of speed and
feed boxes, Design of
feed box, Speed box, Development of gearing diagram.
3 Design Of Machine Tool Structures:
05
Functional requirements of machine tool structures, Design
criteria & procedure for
machine tool structures, Materials for machine tool structures,
Design of beds, columns
and housings and other parts of machine tools.
4 Design of Guideways: 03
Functions and types of Guideways, Design of slideways, Design
criteria and calculations
for slideways, Guideways operating under liquid friction
conditions, Design of Aerostatic
slideways, Design of Antifriction slideways
SECTION-II
5 Design Of Spindles And Spindle Supports: 07
Functions of spindle unit and requirements, Materials, Machine
tool compliance &
machining accuracy, Design calculations of spindles, Bearings for
spindles.
6 Dynamics Of Machine Tools: 05
Forced vibrations of machine tools, Dynamic characteristics of
elements and systems,
Stability analysis.
7 Electrical drives and their control for machine tools 03
8 Control Systems In Machine Tools:
06
Functions, requirements and classification, Control systems for
speeds and feeds, various motions etc. Manual & automatic control systems.
TERM WORK
1 Any one problem on
(a) Design of a spur/helical gear box for machine tool - Report
containing all calculations,
Sketches for design of a typical gear box.
(b) Two sheet of A2 size containing drawing of details and assembly for a typical gear
box as per (i)
2 Any two assignments on the following
(a) Selection of belts for a machine tool.
(b) Selection of electric motor for a machine tool.
(c) Hydraulic system in a machine tool.
(d) Design of guideways based on wear resistance and stiffness.
*Standard Design data books for all above experiments should be
used.
REFERENCE BOOKS:
1 Machine tool design and numerical control by N.K.Mehta, Tata Mc-
Graw Hill
Publication
2 Mechanical Vibration by G. K. Grover, Published by Nemchand
& Brothers, Roorkee
3 Mechanical Vibration by Dr. V. P. Singh, Published by S. Chand
& Sons New Delhi.
4 Design of Machine Tools by S.K.Basu, Oxford and IBH publishing,
New Delhi
5 Principals of machine Tools by Sen. and Bhattacharya, New age
central book agency
6 Principals of machine Tools by Koenigs-Berger
7Machine Design by T H Wentzell Cengage Learning
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
4. ELECTIVE-III
4. COMPUTATIONAL FLUID DYNAMICS
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
SECTION I
1 Basic Concepts: 05
Thermodynamics laws and relation, Energy equation, Continuity
equation, Momentum
equation, Mach number, Mach angle, Various regions of flow.
2 One Dimensional Isentropic Flow: 05
Adiabatic flow and reference speed, Relation between M and M,
Fllegnerl’s formula,
Impulse function, Gas tables and charts, Performance of
convergent- divergent nozzle.
3 Normal Shock: 06
Fanno process, Rayleigh process, Formation of shock wave,
Prandtimeyer relation,
pressure and temperature ratios across the shock, Stagnation
pressure loss and increase in entropy,
Supersonic diffusers.
4 Oblique Shocks: 05
Introduction, Governing equations, Prandtl relation, oblique shock
relation, Mach angle
and Mach waves, The shock polar.
SECTION II
5 Flow with Friction: 05
Governing equation, Fanno equation, Change in entropy, isothermal
flow.
6 Flow with Heat Transfer: 05
Governing equation, Rayliegh equation, Maximum enthalpy point,
Maximum entropy
point, Valuation of fluid properties, Maximum heat.
7 Equations Of Motion: 06
Equation of motion in cartesion co-ordinates, continuity equation,
momentrim equation,
Vorticity components, radial and tangential accelerations,
Velocity potential, Stream function and its equation.
8 Measurement Techniques: 05
Wind tunnel, Suction tunnel, Supersonic tunnel, Shock tube, Flow
visualization, Smoke
techniques, Liquid film method, Measurement of Velocity, Measurement
of Flow.
TERM WORK
1 1 Study of Wind tunnels
2 Test on Wind tunnel for elementary objects like aerofoil.
3 Study of shock tubes
4 Test on convergent – divergent nozzle.
5 Study of flow visualization techniques.
6 Study of hot wire anemometer
7 Study of methods of pressure measurement in gas flow.
Note: For external exam, the
programs must be given and then the assessment of students to be done.
TEXT BOOKS
1. Elementary Gas Dynamics – S.M. Yahya
2. Elementary Gas Dynamics – Hurain Z.
3. Gas Dynamics and Jet Propulation – S.L. Somsundaram
4. Introduction to gas Dynamics – Patel, Lolwal, Bhavsar
5. Gas Dynamics Vol. I – Shapiro
6. Incompressible Flow – Penton Willey India
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-IV
1. INDUSTRIAL AUTOMATION AND ROBOTICS
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
SECTION I
1. Introduction: Automated manufacturing systems, fixed
/programmable /flexible
automation, Need of automation, Basic elements of automated
systems- power, program
and control. 03
2. Advanced automation functions, Levels of automation; Industrial
control systems in
process and discrete manufacturing industries, Continuous and
discrete control; Low cost
automation, Economic and social aspects of automation. 05
3. Assembly Automation: Types and configurations, Parts delivery
at workstations-
Various vibratory and non-vibratory devices for feeding and
orientation, Product design
for automated assembly. 05
4. Transfer Lines: Fundamentals, Configurations, Transfer
mechanisms, storage buffers,
control, applications; Analysis of transfer lines without storage
buffers. 06
SECTION II
5. Fundamentals of Industrial Robots: Specifications and
Characteristics, Criteria for
selection. 02
6. Robotic Control Systems: Drives, Robot Motions, Actuators,
Power transmission systems;
Robot controllers, Dynamic properties of robots-stability, control
resolution, spatial
resolution, accuracy, repeatability, compliance, work cell
control, Interlocks 05
7. Robotic End Effectors and Sensors: Transducers and sensors-
sensors in robotics & their classification, Touch (Tactile) sensors,
proximity and range sensors, force and torque sensing, End Effectors- Types,
grippers, Various process tools as end effectors; Robot- End effector
interface, Active and passive compliance, Gripper selection and design. 06
8. Robot Programming: Lead through method, Robot program as a path
in space, Methods of defining positions in space, Motion interpolation,
branching; Textual robot programming languages-VAL II. 04
9. Robot Applications: Material transfer, machine loading
unloading and processing
applications. 03
TERM WORK
1. Two Programming exercise on lead through
programming.
2. Two Programming exercises using various commands
of VAL II.
3. One Industrial visit for Robot application
4. One Industrial visit for Industrial automation
REFERENCE BOOKS:
1. Groover, M.P., (2004), “Automation, Production Systems &
Computer Integrated
Manufacturing” 2/e, (Pearson Edu.) ISBN: 81-7808-511-9
2. Groover, M.P.; Weiss, M.; Nagel, R.N. & Odrey, N.G.
“Industrial Robotics, Technology,
Programming & Applications”, (McGraw Hill Intl. Ed.)
ISBN:0-07-024989-X
3. Fu, K.S.; Gonzalez, R.C. & Lee, C.S.G. “Robotics-Control,
Sensing, Vision and
Intelligence”, (McGraw Hill Intl. Ed.) ISBN:0-07-100421-1
4. Keramas, James G. (1998), “ Robot Technology
Fundamentals”,(Thomson Learning-
Delmar) ISBN: 981-240-621-2
5. Noff, Shimon Y. “Handbook of Robotics”, (John Wiley & Sons)
6. Niku, Saeed B. (2002), “Introduction to Robotics, Analysis,
Systems & Applications”,
(Prentice Hall of India)
7. Koren, Yoram “Robotics for Engineers”, (McGraw Hill)
8. Schilling, Robert J.(2004), “Fundamentals of Robotics, Analysis
& Control”, (Prentice
Hall of India), ISBN: 81-203-1047-0
9. Introduction To Robotics Mechanics & Control 3e by J J
Craig Pierson Education
10. Applied Robotics Volume I & II by Edwin Wise Cengage
Learning.
B.E. (MECHANICAL) PART-I ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-IV
2. ENTERPRISE RESOURCE PLANNING
Teaching Scheme: Examination Scheme:
Lectures: 3 Hrs. / Week Theory Paper : 100 Marks
Practical: 2 Hr. / Week Term work: 25 Marks
Objective :
• To understand evolution,
implementation and advantages of ERP.
• To understand different ERP
modules and case studies.
1. Introduction to ERP: (3)
Introduction, Evolution, Reasons for the growth of ERP market,
Advantages, Reasons for failure of ERP.
2. ERP and related technologies: (5)
Business Process Reengineering (BPR), Management Information
System (MIS), Supply Chain Management (SCM), Decision Support Systems (DSS),
Executive Information Systems (EIS).
3. ERP – A manufacturing perspective : (4)
CAD/CAM, MRP, MRP II, Distribution Requirement Planning (DRP), JIT
and Kanban,
Production Data Management (PDM), .
4. ERP Modules: (10)
Introduction to finance, Mfg. and Production planning, Plant
maintenance, quality and
material management modules to be explained except finance.
5. Benefits of ERP: (6)
Reduction of lead time, On time shipment, reduction in cycle time,
improved resource
utilization, better customer satisfaction, input supplier
performance, increased flexibility,
Reduced quality cost, improved information accuracy and decision
making capability.
6. ERP Implementation life cycle: (7)
Introduction, Pre-evaluation Screening, Package evaluation,
Project planning, Gap
analysis, Re-engineering, Configuration, Team training, Testing,
End user training and
post-implementation phases.
7. ERP market and case studies: (5)
Brief account of ERP market, various ERP packages like SAPAG,
Oracle, PeopleSoft, etc, Case studies based on implementation of ERP for
various industries in mfg., marketing and other business.
TERM WORK
1. Minimum six assignments based on above topics.
2. Detailed study of implementation of ERP and analysis and review
of its benefits for any suitable application.
REFERENCES:
1. Enterprise Resource planning, Alexis Leon, Tata McGraw Hill
Publication, ISBN 0-07-
463712-6.
2. Enterprise Resource Planning, Bret Wagner, Delmar Learning,
International edition, ISBN– 10 : 1439081085, ISBN – 13 : 978-1439081082
3. Modern ERP : Select, Implement and Use Marianne Bradford,
H&M Books, lulu.com,
ISBN : 978-0-557-01291-6.
4. Enterprises Resource Planning By Venkateshswara SCITECH
publication(Pb)
5. Enterprises Resource Planning By Venkateshswara SCITECH
publication(Hb)
6. Entrepreneurship by Chris Boulton , Patric Turner Willey India
7 Enterprises Resource Planning By E.F. Monk, B.J.Wanger Cengage
Learning
8 Enterprises Resource Planning By A R Singla Cengage Learning
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-III
3. CRYOGENICS
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Section I
1 Introduction to Cryogenic: 02
History and development it’s importance, cryogenic temperature
scale.
2 Behaviour of materials at low temperature : 04
Low temperature properties of materials, Mechanical
properties Thermal properties, electric and magnetic
properties,Properties of cryogenics& fluids.
3 Gas Liquification Systems: 07
Introduction- production of low temperature , Liquefaction systems
for N2, Neon, Hydrogen, He
etc.(Numerical Treatment)
4 Cryocoolers: 08
Sterling, G-M and pulse tube cryocoolers.
Section II
5 Gas Separation And Purification Systems: 05
Thermodynamically ideal separation systems- properties of
mixtures , principles of gas separation Rectification column-
Linde single and double
column system of air separation.
6 Measurement Systems For Low Temperatures: 05
Measurement of different parameters at low temperature like
temperature, pressure level mass flow rate etc.
7 Cryogenic Fluid Storage And Transfer Systems: 05
Dewar vessel, insulation types and importance. Components of
transfer system with importance. Importance of vacuum and it’s measurement.
8 Application Of Cryogenic Systems: 06
Applications in mechanical, electrical, food preservation,
biological and medical, space
technology etc.
REFERENCE BOOKS:
1 .Cryogenics systems – Randall Barron – Mc Graw Hill Book Co
2 .Cryogenic Engineering – R.B.Scott – Van Nosfrand Co.
3 .Cryogenic Engineering –J.H.Bell – Prentice Hall
4 Cryogenic Engineering – R.W.Vance – John Welley.
5 Cryocoolers - Walkers – Prentice Hill Publication
Term Work:
1 Study of cryogenic system.
2 Study of gas liquification system
3 Study of gas separation and purification.
4 Study of various measuring techniques used in cryogenics
5 Study of cryogenic fluid storage system
6 Study of insulating materials and their applications in
cryogenics
7 Study and applications of cryogenic system
8 Visit to cryogenics plant industry (compulsory).
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
5. ELECTIVE-IV
4. PLC & SCADA PROGRAMMING
Teaching Scheme: Examination Scheme:
Lecturers: 3 Hrs/ Week Theory: 100 Marks
Practicals: 2 Hrs/ Week Term work: 25 Marks
Objective :
• To expose students to
fundamentals of PLC.
• To enable students to apply PLC
programming and SCADA.
SECTION – I
1. Basics of PLC Programming: (6)
Hardwired logic Vs Programmed logic, symbols used in ladder logic,
guidelines
for ladder drawing, Relay type instructions, logical instructions,
data comparison instructions, data computation instructions.
2. Basic Relay Instructions: (3)
NONC, Instructions BIT instructions output & output latching
instruction, Negated output
Instruction and one shot instruction
3. Timer & Counter Instructions: (8)
Introduction, types, timer instructions, counter instructions,
applications, implementation of timers and counters for industrial problem
solving.
4. Programme Control Instructions: (3)
Master Control and Zone control instructions, jump instructions
and subroutine. Applications of above in PLC programming.
SECTION – II
5. Supervisory Control And Data Acquisition (SCADA): (4)
Concept of SCADA, its industrial significance and applications.
6. Interfacing of SCADA with PLC: (6)
Steps, methodology, procedure of implementation and protocols.
7. Applications of SCADA: (5)
Applications of SCADA in process control, industrial automation
and various manufacturing systems.
8. Effecting Control using SCADA: (5)
Effecting control using data generated through SCADA, Analysis of
data for
various MIS related tasks.
TERM WORK
1. Two experiments on ladder applications using basic programming.
2. Four experiments on timer and counter applications.
3. Two assignments on SCADA applications for simple problems.
REFERENCE BOOKS:
1. “Programmable Logic Controller – Principles and Applications”, 5/e,
J. W. Webb, R.A.
Reis; Prentice Hall of India Ltd. ISBN 81-203-2308-4.
2. “Programmable Logic Controller – Principles and Applications,
by NIIT; Prentice Hall
Publications Pvt.Ltd. India, ISBN 81-203-2525-7.
3. “Programmable Logic Controller – Programming methods and
Applications”, Hackworth
John R. and Hackworth Frederick D. Jr.; Pearson Education LCE,
ISBN 81-297-0340-8.
4. Introduction to PLC – Gary Dumming – Delmar Pub.
5. Various PLC manufacturers catalogue.
6. Programmable Logic Controller – FESTO Pneumatics, - Bangalore
7. SCADA, Stuart A. Boyer (ISA Publi.) ISBN 1-55617-660-0.
8. Practical SCADA for industry, David Bailey, (Elsevier Publi.)
ISBN 0-7506-5805-3.
B.E. (MECHANICAL) PART-II ( W.E.F. 2010-11 From July
2010)
6. PROJECT
Teaching Scheme: Examination Scheme:
Practicals: 5 Hrs/ Week Term work: 100 Marks
Oral/ P.O.E: 75 Marks
1. To provide an opportunity to students do work independently on
a topic/ problem/
experimentation selected by them and encourage them to think
independently on their own to bring out the conclusion under the given
circumstances of the curriculum period in the budget provided with the guidance
of the teachers.
2. To encourage creative thinking process to help them to get
confidence by planning and carrying out the work plan of the project and to
successfully complete the same, through observations, discussions and decision
making process.
Project Load:
Maximum 9-10 students in one batch, involving 03 groups Maximum
9-10students shall
work under one Faculty Member Group of one student is not allowed
under any circumstances.
Project Definition:
Project work shall be based on any of the following:
1. Fabrication of product/ testing setup of an experimentation
unit/ apparatus/ small
equipment, in a group.
2. Experimental verification of principles used in Mechanical
Engineering Applications.
3. Projects having valid database, data flow, algorithm, and
output reports, preferably
software based.
Project Term Work:
The term work under project submitted by students shall include
and assessment of Term work should be as below
1 Work Diary: 25 Marks
Work Diary maintained by group and countersigned by the guide
weekly.
The contents of work diary shall reflect the efforts taken by
project group for
1. Searching suitable project work
2. Brief report preferably on journals/ research or conference
papers/ books or literature
surveyed to select and bring out the project.
3. Brief report of feasibility studies carried to implement the
conclusion.
4. Rough Sketches/ Design Calculations, etc.
PROJECT REPORT FORMAT
Project Report:
Project report should be of 60 to 70 pages. For standardization of
the project reports
the following format should be strictly followed.
1 Page size : Trimmed A4
2. Top Margin : 1.00 Inches
3. Bottom Margin : 1.32 Inches
4. Left Margin : 1.5 Inches
5. Right Margin : 1.0 Inches
6. Para Text : Times New Roman 12 point font
7. Line Spacing : 1.5 Lines
8. Page Numbers : Right aligned at footer. Font 12 point Times New
Roman
9. Headings : New Times Roman, 14 point, Boldface
10. Certificate :All students should attach standard format of
Certificate as
described by the Department. Certificate should be awarded to
batch and not individual
student Certificate should have signatures of Guide, Principal,
and External Examiner.
Entire Report has to be documented as one chapter.
11 Index of Report :
i) Title Sheet
ii) Certificate
iii) Acknowledgement
iv)Table of Contents
v)Synopsis
vi) List of Figures
vii) List of Photographs/ Plates
viii)List of Tables
1. Introduction
2. Literature Survey/ Theory
3. Design/ Experimentation/ Fabrication/ Production/ Actual work
carried out
for the same.
4. Observation Results
5. Discussion on Results and Conclusion
12 References : References should have the following format
For Books:
“Title of Book”; Authors; Publisher; Edition;
For Papers:
“Title of Paper”; Authors; Conference Details; Year.
2 Presentation: 30 Marks on the Basis of Continuous assessment
A) For report :15 Marks
B) The group has to make a presentation before the faculties of
department 30 Marks
SUGESTED MEANS OF CENTRALISED ASSESMENT OF PROJECT WORK FOR
SINGLE INSTITUTION
Suggestions for seminar & project assesment
_ Seminar should clubbed with
project.
_ Interim presentation of
seminar.
_ Evaluation of seminars by 3 to
4 faculty members.
_ Teacher should give seminar
topic.
_ Proper literature survey.
_ Seminar & Project copies
should be handwritten & then should be typed.
_ Project diary should be
maintained.
_ Before in plant training
orientation should be given.
_ Evaluation of projects can be
done by Industry person.
_ Common platform for project
evaluation.
_ If projects will complete
before March then evaluation / rational assessment will be done by
university. Also for students who are getting more than 90% marks
in the term work.
_ Project report should be
submitted before 31st March.
_ Common guidelines for
evaluation of projects are to be decided which are as follows
_ Scope & contents.
_ Relevance.
_ Literature Survey.
_ Executation.
_ Experimentation.
_ Results & Discussions.
_ Innovations.
_ Recognition – Industry
sponsored.
_ Eco friendly.
_ Further scope.
