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DEPARTMENT OF INSTRUMENTATION ENGINEERING
JORHAT ENGINEERING COLLEGE
JORHAT-785007 (ASSAM)
GOVT INSTITUTE
AFFILIATED
TO
DIBRUGARH UNIVERITY,
NH-37, RAJAPETA, DIBRUGARH, ASSAM -786004
PROGRAMME
BACHELOR OF ENGINEERING
IN
INSTRUMENTATION ENGINEERING
SYLLABUS
III to VIII SEMESTERS
(OLD CURRICULUM)
2015-16 Batch
VISION OF THE INSTITUTION
Development of quality human resources for sustainable industrial and societal growth
through excellence in technical education and research.
MISSION OF THE INSTITUTION
1. To impart quality technical education at UG, PG and PhD levels through good academic
support facilities.
2. To develop a system for effective interactions among industries, academia, alumni and
other stake holders.
3. To provide an environment conducive to innovation and creativity, group work and
entrepreneurial leadership.
4. To provide a platform for need based research with special focus on regional development.
VISION OF THE DEPARTMENT
To be a pre-eminent Department of studies in Instrumentation Engineering by imparting
quality education to meet the needs of industry and society.
MISSION OF THE DEPARTMENT
1. To produce instrumentation engineers having strong theoretical foundation.
2. To keep abreast with latest developments in the domain and continuously upgrade the
skills of students for better employability.
3. To inspire students for higher education and research.
4. To provide state of the art facilities so as to make the students adaptable to frontier areas
of Instrumentation Engineering for the benefit of society and the region.
PROGRAM EDUCATIONAL OBJECTIVES (PEOS)
The students are expected to
PEO1: Apply new and emerging technologies to analyse, design, implement and provide
solutions to problems appropriate to the discipline.
PEO2: Be industry ready with adequate hands on experience on instrumentation techniques.
PEO 3: Possess keenness to proceed for higher education in interrelated areas of
Instrumentation.
PEO 4: Be proficient in computational systems and softwares related to domain needs.
PROGRAMME SPECIFIC OUTCOMES (PSOS):
PSO1: Acquire knowledge of sensor technology for applications in wide area of
instrumentation.
PSO2: Practise principles of automation in industries.
PROGRAM OUTCOMES (POs):
Engineering Graduates will be able to:
1. Engineering knowledge: Apply the knowledge of mathematics, science, engineering
fundamentals, and an engineering specialization to the solution of complex
engineering problems.
2. Problem analysis: Identify, formulate, review research literature and analyze
complex engineering problems reaching substantiated conclusions using first
principles of mathematics, natural sciences, and engineering sciences.
3. Design/development of solutions: Design solutions for complex engineering
problems and design system components or processes that meet the specified needs
with appropriate consideration for the public health and safety, and the cultural,
societal, and environmental considerations.
4. Conduct investigations of complex problems: Use research-based knowledge and
research methods including design of experiments, analysis and interpretation of data,
and synthesis of the information to provide valid conclusions.
5. Modern tool usage: Create, select, and apply appropriate techniques, resources and
modern engineering and IT tools including prediction and modeling to complex
engineering activities with an understanding of the limitations.
6. The engineer and society: Apply reasoning informed by the contextual knowledge to
assess societal, health, safety, legal and cultural issues and the consequent
responsibilities relevant to the professional engineering practice.
7. Environment and sustainability: Understand the impact of the professional
engineering solutions in societal and environmental contexts, and demonstrate the
knowledge of and need for sustainable development.
8. Ethics: Apply ethical principles and commit to professional ethics and responsibilities
and norms of the engineering practice.
9. Individual and team work: Function effectively as an individual and as a member or
leader in diverse teams, and in multidisciplinary settings.
10. Communication: Communicate effectively on complex engineering activities with
the engineering community and with society at large, such as, being able to
comprehend and write effective reports and design documentation, make effective
presentations, and give and receive clear instructions.
11. Project management and finance: Demonstrate knowledge and understanding of
the engineering and management principles and apply these to one’s own work, as a
member and leader in a team, to manage projects and in multidisciplinary
environments.
12. Life-long learning: Recognize the need for, and have the preparation and ability to
engage in independent and life-long learning in the broadest context of technological
change.
SYLLABUS FOR
III to VIII SEMESTERS
BE IN INSTRUMENTATION ENGINEERING
Semester-III
Sl.
No
Course
Code
Course Title Theory Sessional Practical
1 MA-31` Mathematics-III 100 50 -
2 IN-31 Transducers 100 - 50
3 IN-31L Transducers Lab - - -
4 CS -31 Fundamental of Computing 100 50 -
5 EE-31 Basic Electronics 100 50 50
6 EE-31L Basics Electronics laboratory - - 50
7 ME-31 Theory of Machines 100 - 50
Semester-IV
Sl.
No
Course
Code
Course Title Theory Sessional Practical
1 MA-41` Mathematics-IV 100 50 -
2 IN-41 Instrumentation System Components 100 - 50
3 IN-42 Mechanical and Industrial Instruments 100 50 -
4 EE-41 Digital Systems and Logic Design 100 50 -
5 EE-42 Digital Systems and Logic Design Lab - - 50
6 EE-43 Electrical Measurement-I 100 100 -
7 CE-41 Fluid Mechanics 100 - 50
Semester-V
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Practical
1 C301 MA-51 Mathematics-V 100 50 -
2 C302 CS-51 Object Oriented Programming 100 50 -
3 C303 EE-51 Advanced Electronics 100 50
4 C304 EE-52 Electrical Measurement-II 100 50 -
5 C305 PH-51 Electrical Engineering Materials 100 50 25
6 C306 IN-51 Introduction to Chemical
Processes
100 50 -
7 C307 EE-51L Advanced Electronics Lab - - 50
Semester-VI
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Practical
1 C308 HS-61 Principles of Economics &
Accountancy
100 50 -
2 C309 EE-61 Communication Engineering 100 50 -
3 C310 EE-62 Microprocessors-I 100 50 -
4 C311 EE-63 Electrical Machines &
Applications
100 50 -
5 C312 IN-61 Analytical Instruments 100 50 -
6 C313 IN-62 Drawing & Design of
Instrumentation System
Components
- 100 -
7 C314 EE-62L Microprocessors-I Lab - - 50
8 C315 EE-63L Electrical Machines &
Applications Lab
- - 50
Semester-VII
Sl.
No
SAR
Code
Course
Code
Course Title Theor
y
Sessional Viva
1 C401 HS-71 Industrial Organisation and
Management
100 50 -
2 C402 EE-71 Microprocessors-II 100 50 -
3 C403 EE-72 Power Electronics 100 50 -
4 C404 IN-71 Optoelectronics 100 50 -
5 C405 IN-72 Elective-I 100 50 -
6 C406 IN-73 Project-I - 100 50
Elective-I
1. Biomedical Instrumentation (IN-72)
2. Advanced Communication (EE-735)
3. Artificial Intelligence (CS-723)
4. Digital Image Processing (CS-726)
5. Electronic Instrumentation (IN-74)
6. Interactive Computer Graphics (CS-729)
Semester-VIII
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Viva
1 C407 EE-81 Automatic Control Systems 100 50 -
2 C408 IN-81 Process Modelling andControl 100 50 -
3 C409 IN-82 Digital Signal Processing 100 50 -
4 C410 IN-83 Elective-II 100 50 -
5 C411 IN-84 Project-II - 150 50
6 C412 IN-85 General Viva-Voce - - 100
Elective-II:
1. Data Communication & Networks (EE-84)
2. Robotics and Applications (ME-89)
3. Environmental Monitoring & Control (IN-83)
4. Computer Control Systems (EE-86)
5. Non-destructive Testing (IN-85)
SYLLABUS
FOR
SEMESTER-III
Sl.
No
Course
Code
Course Title Theory Sessional Practical
1 MA-31` Mathematics-III 100 50 -
2 IN-31 Transducers 100 - 50
3 IN-31L Transducers Lab - - -
4 CS -31 Fundamental of Computing 100 50 -
5 EE-31 Basic Electronics 100 50 50
6 EE-31L Basics Electronics laboratory - - 50
7 ME-31 Theory of Machines 100 - 50
3rd SEMESTER B.E ( Instrumentation)
SYLLABUS FOR
Sub: MATHEMATICS-III (MA31)
Theory:100 Sessional :50
Course objective:
To expose the students to knowledge of series solution, Fourier series, partial
differential equation and Laplace transform.
Course outcome:
At the end of the course students, the student will be able to
CO1: Apply different methods for solving linear differential equation with variable
coefficient in series, Solve Bessel’s and Legendre’s equations and explain Bessel and
Legendre function.
CO2: Find Fourier series of periodic function in any interval and sine - cosine series, half
range series and harmonic analysis.
CO3 Define various terms related to P.D.E and explain the method of forming P.D.E , Apply
different methods to solve P.D.E and some engineering and physical problems.
C04: Find Laplace and Inverse Laplace transforms of functions and list theorems on them,
Apply Laplace transforms to solve differential equation with boundary values and
engineering problems arising in electrical and mechanical engineering.
Relation of CO-PO
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PS
O1
PS
O2
CO
1 2
CO
2 2
CO
3 1 2
CO
4 3
Av
g 2 2
3rd SEMESTER B.E ( Instrumentation)
SYLLABUS FOR
TRANSDUCERS(IN31)
Theory:100 Sessional :50 Practical : 50
L-3 T-1 P-3
Course Outcomes: On Completion of this course the students should be able to
COs
CO1 Analyze static and dynamic characteristics of a measurement
system.
CO2 Explain the working principles of resistive, inductive, capacitive
and piezoelectric transducers.
CO3 Explain the working principles of transducers used for
temperature measurement.
CO4 Select/choose special transducers for measurement of various
physical parameters.
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 1 1
3 CO
2 3 2 2
CO
3 3 1 1 1
CO
4 3 1 1
Av
g 3 2
1.2
5 1 1 3
1. Classification of Transducers; Their characteristics – static and dynamic; Errors and Uncertainity.
2. Statistical analysis of errors: Probability distribution function; Gaussian
distribution; Chi-square test; Regression analysis; Best fit curve; Pultering;
Averaging and Correlation techniques; Application to improve signal-to-noise
ratio.
3. Resistance transducers: Principle of potentiometers; RTD and Thermistors; Strain Gauge – application in measurement of pressure, force, torque and vibration.
4. Capacitive transducers: Air gap and dielectric types and their applications.
5. Piezoelectric transducers: Piezoelectric crystal and its properties; Sensitive coefficients; Materials, Application.
6. Optical Transducers: LDR, LED, Photo detector, Radiation pyrometer.
7. Thermo couple: Characteristics, Installation and compensation, IC temperature sensors.
8. Combination of Elastic and Electrical transducers: Hall effect transducers; Magnetostrictive transducers; Feed back transducers.
Text books:
1. Instrument transducers – An introduction to their performance and design – Neubert MKP, Clarendon Press.
2. Measurement Systems: Application and Design – Doeblin E.O., McGraw Hill.
3. Transducers and Instrumentation – Murthy D.V.S., P.M.I. New Delhi.
4. Sensors and Transducers – Patranabis D., Wheeler.
5. Instrumentation, Measurement and Feed Back – Jones B.E., T.M.H. New Delhi.
6. Instrumentation Devices and Systems – Ranga, Sarma, Mani; T.M.H.
Course Title: Transducers Laboratory
Course Code: IN31L Semester : 3rd
COURSE OUTCOMES:
CO1: Analyze different types of transducers/sensors data.
CO2: Apply their knowledge in conducting experiments.
CO3: Interact Effectively on a social & interpersonal level with fellow students to receive
clear procedural instructions.
CO4: Share task responsibilities to complete assignments and ethically Develop professional
and technically sound reports.
CO-PO MAPPING:
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3
1 1
CO
2 3 1
CO
3 1 3 3 2
CO
4 3 3 3 2
Av
g 3 1 1 3 3 3 2 1 1
Experiment
No
Title of the
Experiments
Objective of the experiments
1 LVDT 1. To draw the characteristics Of a LVDT 2. To determine the sensitivity of the system
2 Torque Transducer 1. Study of the torque transducer.
2. To use torque transducer having strain gauges
as sensors & to determine its I/O
characteristics.
3 Load Cell 1. T study the Colum type Load Cell 2. To calculate the sensitivity of load cell
4 Orifice 1. To study the flow of air through an orifice and
hence determine the flow rate with the help of
U-Tube manometer.
2. To plot the flow versus pressure difference
characteristics for different flow rates.
5 Rotational Potentiometer 1. To study the input output characteristics of
rotational
Potentiometer
6 Thermocouple 1. To determine the sensitivity and time constant
of a thermocouple [iron constantan or copper
constantan] for step input .
2. To compare its response with that for ramp
input.
7 I/P-P/I Converter To determine-
A. Linearity of I/P converter
B. Hysteresis of I/P converter
C. Accuracy of I/P converter
D. Linearity of P/I converter
E. Hysteresis of P/I converter
F. Accuracy of p/i converter.
8 PV cell 1 To draw the characteristic curve of a PV cell
9 LDR Study of light dependent register
10 optical Weight sensor To Obtain the voltage VS weight graph
Text books:
1. Principle of indrustrial Instrumentatoon; D Patranabis
2. Introduction to instrumentation engineering ; AK Sahwany
Course Title: Fundamentals of Computing
Course Code: CS31 Semester : 3rd
CO1: To explain the components of Computing System (L2: understanding)
CO2: To make use of algorithms for mathematical and scientific problems (L3: applying)
CO3: To apply conditional branching, iteration and data types for problem solving (L3:
applying)
CO4: To develop modular programs using functions and recursion (L3: applying)
CO5: To use arrays, pointers, structures and file handling to formulate algorithms and
programs (L3: applying)
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 1
CO2 3 2 2
CO3 3 2 1
CO4 3 2
1
CO5 3 2 1
Avg 2.6 2 2 1
SYLLABUS
Components of a digital computer, block diagram, software, hardware, I/O devices,
languages-machine, assembly, high level, compiler, interpreter, problem solving – algorithms
, pseudo code, flowchart , Learning the form of a C program, Declaring variables, designing
program flow and control, defining and using functions, using standard terminal I/O
functions.
Character types, Integer, short, long, unsigned, single and double-precision floating point,
storage classes - automatic, register, static and external , Using numeric and relational
operators, mixed operands and type conversion, Logical operators, Bit operations, Operator
precedence and associativity.
Applying if and switch statements, nesting if and else, restrictions on switch values, use of
break and default with switch. Uses of while, do and for loops, multiple loop variables,
assignment operators, using break and continue.
Passing arguments by value, scope rules and global variables, separate compilation, and
linkage, building your own modules.
Array notation and representation, manipulating array elements, using multidimensional
arrays, arrays of unknown or varying size, Purpose and usage of structures, declaring
structures, assigning of structures, Components in overlapping memory, declaring and using
unions .h vs. private .c files, Hiding private variables and functions.
Pointer and address arithmetic, pointer operations and declarations, using pointers as
function arguments, Dynamic memory allocation, manipulation of linked linear list, pointer
to structure, arrays and pointers, array of pointers, function pointers
Bit access and masking, pointing to hardware structures. Reading command line arguments,
creating and accessing files, file opening modes, formatted disk I/O.
Preprocessor directives, Defining and calling macros, utilizing conditional compilation,
passing values to the compiler, Input / Output : fopen , fread, etc, string handling functions,
Math functions : log, sin, alike Other Standard C functions.
Books and references:
1. Herbert Schield, Complete reference in C, TMH
2. Yashwant Kanetkar, Let US C, BPB
3. Balaguruswamy, Programming in ANSI C, TMH
4. Yashwant Kanetkar Pointers in C
5. Kernighan and Ritchie, The C programming language
Course Title: Basic Electronics
Course Code: EE31 Semester of Study: 3rd
COURSE OUTCOMES:
BE1: Analyze operational characteristics of diodes, BJT and FET.
BE2: Design simple analog circuits using BJT and FET.
BE3: Analyze BJT, FET amplifiers(small and large signal), oscillators circuits.
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2
3 CO2 2 3 2 2
CO3 1 3 2 2
Avg 2 3 2 2 3
1. Bond model of Silicon crystal: Intrinsic carrier concentration, Effect of
doping on carrier concentration, Holes and electrons, Majority and minority
carriers, Mobility and diffusion constants, Passage of current through
semiconductor materials, Drift and diffusion processes, Recombination and carrier life-time, Effect of temperature.
2. The p-n junction: Basic construction, Abrupt junction and graded junctions,
Symmetrically and asymmetrically doped devices, Built-in field and depletion region approximation, Analysis of the capacitance associated with a diode
devices, Effect of temperature on the current flow.
3. Circuit models of a diode: Piece-wise linear static model and dynamic
incremental model; Practical circuits employing diode; Voltage multiplier, Clipper and clamper; Power rectifying circuits; Power filters; Special purpose
diodes – LED, Photodiode, Schottky diode.
4. Bipolar junction transistor (BJT): Basic construction and the physical
behaviour of the device; Low level injection condition; Forward active region
(FAR) and the study of the flow of carriers through the BJT; Control valve
action; Volt-amp curves; Base width modulation and early effect; Static circuit
models; Ebers – Moll equations for the current of BJT forward bias
conditions; A simple amplifier circuit; Bias stability, compensation and
biasing methods; The common base (CB), common emitter (CE) and common
collector (CC) configurations.
5. Small signal operation of the BJT amplifier: Incremental models for the
BJT; Hybrid- model; Analysis of amplifiers with the help of incremental
models; Simplified low frequency operation; Gains, input and output
impedances of the amplifiers; Some ideas about high frequency analysis such
as Miller effect and Dominant pole approximation; Determination of the
Hybrid- parameters; Details about Two port - and h-parameter analysis.
6. Multiple stage BJT amplifiers: PNP and NPN combinations; Voltage and
current biasing methods; Gains; Frequency response of the amplifiers; High
power circuits (Class A, B & B-Push-Pull, AB and C operations) and their
efficiencies; Distortion; Introduction to negative feedback amplifier.
7. Field effect transistor (FET): Construction and characteristics of Junction
FET (JFET); Principle of operation; Characteristic parameters of JFET; Effect
of temperature on JFET parameters; Biasing of JFETs; Common drain (CD),
Common source (CS) and Common gate (CG) configurations; Frequency
response of JFET amplifiers; Metal oxide semiconductor FET (MOSFET);
Enhancement MOSFET (EMOSFET) and Depletion MOSFET (DMOSFET); Differences between JFETs and MOSFETs; Biasing of EMOSFET and DMOSFET; Applications of MOSFETs; Complementary MOSFET (CMOS).
Text Books:
1. Electronic Principles Physics Models and Circuits – Paul S. Gray and Campbell J Scarls, Wiley Eastern Ltd
2. Electronics Devices and Circuits – Allen Mottershed, PHI
3. Electronic Principles – Alvert Paul Malvino, TMH
4. Integrated Electronics – Millman & Halkias, TMH
5. Electronic Devices and Circuits – Boylested & Nashlsky
Course Title: Basic Electronics Laboratory
Course Code: EE31L Semester of Study: 3rd
L-0 T-0 P-2 C-1
COURSE OUTCOMES:
CO1: Analyze the diode and transistor characteristics.
CO2: Analyze rectifier, filter, clipper, clamper circuit, biasing circuits, R-C couple amplifier
circuit.
CO3: Interact Effectively on a social & interpersonal level with fellow students to receive
clear procedural instructions.
CO4: Share task responsibilities to complete assignments and ethically Develop professional
and technically sound reports.
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2 2 1
1 CO2 3 2 3 1
CO3 1 3 3 2
CO4 3 3 3 2
Avg 3 2 2.5 1 3 3 3 1.5 1
SYLLABUS:
1 Study of Electronic Components
2 Study of Instruments and Equipment (DMM, CRO, FG and Power Supply etc.)
3 Find the step response of RC and RL circuits and RLC series circuit resonance
4 Characteristic of a PN diode
5 Voltage regulation of Half wave and Full wave rectifier at No-load and Full-load
6
7
Design and analysis of clipper circuits.
Design and analysis of clamper circuits.
8 Transistor Characteristic in CB configuration.
9 Transistor Characteristic in CE configuration
10 Current, Voltage and Power Amplifications of an CE NPN/PNP Transistor
Amplifier
11 Study of FET characteristics (n-channel JFET)
12 Study the switching characteristic of a switching transistor.
Course Title: Theory of Machines
Course Code: ME31 Semester Of Study: 3rd
CO1: Explain the basics of kinematics and concepts of links and mechanisms.
CO2: Illustrate the functions and applications of gear trains, governors and flywheels
CO3: Utilize concepts of cam and gyroscopic couple for mechanical system development and
analysis
CO PO mapping :
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 1
CO2 3 1
CO3 3 2 2 1
Avg 3 2 2 1
SYLLABUS
FOR
SEMESTER-IV
Sl.
No
Course
Code
Course Title Theory Sessional Practical
1 MA-41` Mathematics-IV 100 50 -
2 IN-41 Instrumentation System Components 100 - 50
3 IN-42 Mechanical and Industrial Instruments 100 50 -
4 EE-41 Digital Systems and Logic Design 100 50 -
5 EE-42 Digital Systems and Logic Design Lab - - 50
6 EE-43 Electrical Measurement-I 100 100 -
7 CE-41 Fluid Mechanics 100 - 50
MATHEMATICS-IV
Course Code: MA41 Semester Of Study: 4th
Course objective :
To expose the students to knowledge of vector calculus ,Tensor analysis ,infinite series and
multiple integrals.
Course outcome:
At the end of the course student will be able to
CO1:Define Vector functions ,differentiation and integration of vectors ,gradient ,divergence
,curl by using Vector differential operator∆, List the properties of gradient ,divergence ,curl
and their physical meaning, Understand line ,surface and volume integrals ;apply Green’s,
Gauss, Stokes theorem to evaluate line ,surface and volume integrals.
CO2:Explain the transformation of co-ordinates ,different types of tensors, algebra of tensors,
Christoffel symbols.
CO3: Classify infinite series as convergent or divergent and make use of comparison and
special tests for convergence of infinite series.
CO4:Apply concepts of line and double integrals in and line ,surface and volume integrals
in to evaluate length ,area and volume; explain improper integrals ,Beta ,Gamma function
and differentiation under integral sign.
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 1 2 3
CO2 2 2
CO3 2
CO4 2 2 3
Avg 1.67 2 3
SUB. CODE – IN-41
4th Semester B.E (Instrumentation))
Syllabus For
INSTRUMENTATION SYSTEM COMPONENTS
Theory: 100
Sessional: 50
On Completion of this course the students should be able to
COs Course Outcomes
CO1 Explain the operation of different types of inductive transducers.
CO2 Demonstrate the knowledge of different control system
components like stepper motors, servomotors, Tachogenerators
flapper nozzle and jet valves etc.
CO3 Develop their transfer functions of P-D, P-I & P-I-D controllers.
Course
Outcome
Programme Outcome PS01 PS02
1 2 3 4 5 6 7 8 9 10 11 12
CO1 2 1 2
CO2 2
CO3 2 1
1. Inductive Transducers: Types and their principles of measurements; LVDT and its phase
sensitive detector; Synchro- principle, constructions and applications.
2.Stepper Motors: Construction; Method of operation; Torque equation; Driver circuits;
Logic translator; applications.
3.D.C. & A.C (2-phase) Servo Motors: Construction; working principle; Torque equation;
Transfer functions; Effect of load variation.
4.Ultrasonic Devices: Principle and applications.
5.Special Transducers: D.C & A.C Techogenerators; Digital transducers; Pneumatic and
Hydraulic components – Flapper Nozzle, Jet valves and their applications.
6.P-D, P-I & P-I-D Controllers: Principle, Transfer functions, Physical realization and
applications.
Reference Books:
1. Neubert H.K.P – Instrument Transducers: An Introduction to their Performance &
Design (Clarendon Press)
2. Murthy D.V.S – Transducers & Instrumentation ( PHI)
3. Liptak V.G – Instrument Engineer’s Hand Book (Vol-I & II )
4. Doebelin E.O- Measurement Systems : Applications & Design (McGrow Hill)
5. Armensky E.V & Falk G.B – Fractional H.P Electrical Machines (Mir Publishers)
6. Gibson J.E &Tuteur F.B- control System components (Mc Grow Hill)
MECHANICAL AND INDUSTRIAL INSTRUMENTS(IN42)
L-3 T-1 P-0
Theory : 100
Sessional : 50
Course Objective:
To provide sound knowledge about various techniques used for the measurement of industrial
parameters.
Course Outcomes: On Completion of this course the students should be able to
COs Course Outcomes Level
CO1 Select a suitable vacuum and medium pressure measurement sensors. L3
CO2 Choose a proper flow and level sensors for industrial measurements. L3
CO3 Identify the relevant force, torque, velocity and acceleration sensors for
industrial applications.
L3
CO4 List different pneumatic instruments commonly used in industry. L2
Mapping of Course outcome and Programme outcome and Programme Specific Outcome:
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PS
O1
PS
O2
CO
1 3 2
2 1
CO
2 3 2
CO
3 3 2
CO
4 3 2
Av
g 3 2 2 1
1. Introduction to Metrology
2. Measurement of thickness, angle, slope, diameter, taper, screw parameters, Gauge etc.
3. Pressure Measurement - Manometers ; Bellows ; Bourdon tubes – design
features, calibration and dynamic measurement ; Vacuum measurement –
Mcleod gauge, Pirani gauge , Knudsen gauge , Ionization gauge etc.
4. Flow Measurement - Head type, Area type , Mass flow meter, Electrical type –
Electromagnetic, Ultrasonic, Hotwire, Anemometers and Digital type- operating principle & design features; Flowmeters for solid materials.
5. Level, Humidity, Viscosity and Density Measurement - Basic principles
6. Measurement of Force, Velocity, Displacement, Acceleration, Torque,
Vibration, Revolution counters, Seismic accelerometers and Vibrometers.
7. Pneumatic Instrumentation - Introduction, Power supply, Air filter, Pressure
regulator, Servo valve, Relay, Amplifier, Controller & Recorders, Introduction to Fluidic devices.
Reference Books :
1. Doebelin E.O – Measurement Systems : Applications and Design (McGrow Hill)
2. Patranibis D – Principles of Industrial Instrumentation
3. Jones B.E – Instrument Technology ( Vol-I & II )
4. Backwith T. G , Buch N. L and Marangoni R.D – Mechanical Measurements
5. K.Krishnaswamy- Industrial Instrumentation (New Age)
6. Eckman D.P – Industrial Instrumentation (WE)
Course Title: Digital Systems & Logic Design
Course Code: EE41 Semester of Study:4th
COURSE OUTCOMES:
DSLDL1:Illustrate the circuits and characteristics of logic gates.
DSLDL2:Solve problems related to number systems and Boolean algebra.
DSLDL3: Design combinational and sequential logic circuits.
DSLDL4: Explain the functioning of memory devices.
CO-PO MAPPING:
COs PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO1 3 2 - - - - - - - - - - 3 2
CO2 3 2 - - - - - - - - - 1 - -
CO3 - 3 3 - 2 - - - - - - 1 - -
CO4 3 - - - 2 - - - - - - 1 - -
1. Introduction : Switching circuits & devices ; Characteristics of ICs and logical level; Positive & negative logic levels.
2. Realization of Logic Gates : Elementary idea of TTL & MOS technology for logic gates ; Important Characteristics of logic gate families.
3. Representation of Informations : General number Systems – decimal, binary
, octal & hexadecimal numbers ; Conversion from one system to another ; Codes & code conversion ; BCD, Gray, Natural BCD & Extended code ;
Negative, positive
& floating point numbers ; Sign magnitude ; 1’s compliment and 2’s compliment representation ; Arithmetic operations ; Representation of textual
informations in ASCII & EBCDIC codes.
4. Boolean Algebra & Logic Functions : Concept of Boolean algebra ; Theorems
& laws ; Boolean expressions ; Canonical & standard forms of logic functions & their properties ; Truth table representation ; Minimization of
logic functions – Karnaugh map and Quine Mclusky method of minimization.
5. Combinational Logic Circuits : AND, OR, NOT, NAND, NOR, XOR &
XNOR gates and their truth tables ; Implementation of Boolean functions
using logic gates ; Multiplexer ; Decoder ; Encoder ; Code converters ; Half and full adder ; Parity generator & parity checker.
6. Sequantial Logic Circuits : Concept of sequential circuits ; Flip-flop
and its different types – clocked R-S , J-K, D, T & master slave ;
Registers – buffers, serial and parallel ; Hazards of sequential circuits ; Sequence generator ;State diagram ; Design of Counters – Synchronous
& Asynchronous , Up & down ; Presettable counters.
Reference Books :
1) Digital Principles and Applications – Malvino & Leach
2) Logic Design and Switching Circuits – Doglas Lewin
3) Digital Circuits and Logic Design – Samual & Lee
Course Title: Digital Systems & Logic Design LAB
Course Code: EE42 Semester of Study:4th
COURSE OUTCOMES:
CO1:.Design, simulate and implement basic combinational and sequential logic circuits.
CO2:Become proficient with computer skills for analyzing circuits using Logisim.
CO3: Design synchronous and asynchronous circuits.
CO4: Interact Effectively on a social & interpersonal level with fellow students to
receive clear procedural instructions.
CO 5: Share task responsibilities to complete assignments and ethically Develop
professional and technically sound reports.
CO-PO MAPPING:
CO P
O1
P
O2
P
O3
P
O4
P
O5
PO
6
PO
7
PO
8
PO
9
PO
10
PO
11
PO
12
PS
O1
PS
O2
CO1 3 3 1
CO2 3 3
CO3 3 3
C04 1 3 3 2
CO5 3 3 3 2
Experi
ment
No.
Title of the Experiment Objective of the Experiment
1 To study and verify the
truth table of logic gates
Identify various ICs and their specification
OR gate
AND gate
NAND gate
NOR gate
2 Realization of a
Boolean function
To simplify the given expression and to realize it
using Basic gates and Universal gate
3 Design and
implementation using
NAND gate
To realize why NAND gate is known as the
universal gate by implementation of :
NOT using NAND
AND using NAND
OR using NAND
XOR using NAND
4 Adders and Subtractors To realize
Half Adder and Full Adder
Half Subtractor and Full Subtractor by using
Basic gates and NAND gates
5 Binary to grey generator To learn the importance of weighted and non
weighted code To learn to generate gray code
.
6 Multiplexer and
Demultiplexer
To design and set up a 4:1 Multiplexer (MUX)
using only NAND gates.
To design and set up a 1:4 Demultiplexer(DE-
MUX) using only NAND gates.
7 Realization of a
Boolean function using
Logisim
To learn the use of Logisim software to design
digital electronics circuits.
8 FlipFlop a. Truth Table verification of
RS Flip Flop
T type Flip Flop.
D type Flip Flop.
JK Flip Flop.
b. Conversion of one type of Flip flop to
another
Text book:
Modern Digital Electronics - R P Jain
Digital Electronics: An Introduction To Theory And Practice by William Gothmann
H
Digital Electronics by John Morris
Fundamentals of Digital Circuits by Anand Kumar
ELECTRICAL MEASUREMENT – I(EE43)
Theory : 100
Sessional : 100
1. Ammeter, Voltmeter & Ohmometers :
a) Review of PMMC & MI type instruments ; Construction and working principle of Magger.
b) Construction , operating principle & torque equation for Electrodynamic, Electrostatic & Induction type instruments.
c) Relative comparison among PMMC, MI, Electrodynamic, Electrostatic & Induction type instruments.
2. Wattmeter & Energymeters : Principle of measuring power by using
Dynamometer and Induction type wattmeters ; Errors and compensation ; low power factor polyphase wattmeters ; Energymeter – difference between
wattmeter
& energymeter ; Principle of construction of Induction type energymeter ; Error compensation and adjustments in energymeter.
3. Special Type Meters : Construction and working principle of Frequency meter, Synchroscope, Power factor meter, Flux meter, Maximum demand meter.
4. Instrument Transformers : Uses of instrument transformers ; Theory of CT & PT ; Ratio & phase angle errors ; Errors compensations ; Testing of CT & PT.
5. Oscilloscope : Block diagram representation ; Cathode ray tube ; Vertical and
Horizontal deflection systems ; Delay line ; Multiple trace ; CRO probe &
transducers ; Measurement of voltage, current, phase & frequency by CRO ;
Storage Oscilloscope.
6. Electronic Instruments : (a) Electronic Voltmeters : Advantage &
disadvantages of using electronic voltmeters ; Different stages in AC & DC
electronic voltmeters ; Balanced bridge voltmeter ; Principle and circuit
diagrams for average responding ; peak responding & RMS responding
voltmeters.(b) Digital voltmeters : Classification of digital voltmeters ;
Principle, block diagram and signal wave form of ramp type, stair case ramp
type and integrating type digital voltmeters. (c) Electronic Multimeters & Q-
meters.
7. Recorders : Different types of recorders ; Construction, working principle and
circuit diagrams of Strip- chart & X-Y recorders.
Reference Books :
1) E.W. Golding & F.C Widdis – Electrical Measurement and Measuring Instruments.
2) William D. Cooper -Electronic Instrumentation & Measurement Techniques.
3) A.K. Sawhney – A Course in Electrical Measurement and Measuring Instruments.
FLUID MECHANICS(CE41)
Theory : 100
Sessional : 100
CO-1 Illustrate different properties and kinematics of fluid. L-2
CO-2 Apply knowledge of hydrostatic principle on submerged or floating
bodies.
L-3
CO-3 Apply equation of motion, dimensional and model analysis to establish
different relationship for different flow conditions.
L-3
CO-4 Interpret the concept of compressible flow and its characteristics. L-3
CO-5 Demonstrate the basic of turbine and centrifugal pump. L-2
PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1
3 1
CO
2
1 2
CO
3
1 2
CO
4
3
CO
5
1 1
SYLLABUS
FOR
SEMESTER-V
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Practical
1 C301 MA-51 Mathematics-V 100 50 -
2 C302 CS-51 Object Oriented Programming 100 50 -
3 C303 EE-51 Advanced Electronics 100 50
4 C304 EE-52 Electrical Measurement-II 100 50 -
5 C305 PH-51 Electrical Engineering Materials 100 50 25
6 C306 IN-51 Introduction to Chemical
Processes
100 50 -
7 C307 EE-51L Advanced Electronics Lab - - 50
Course Outcomes: Upon completion of the course, students shall be able to
CO1 Apply the knowledge of interpolation technique and root finding technique in
different fields of engineering.
CO2 Solve problems on numerical differentiation and integration, simultaneous equations
and differential equations numerically.
CO3 Solve engineering problems on analytic functions, harmonic functions and complex
integrations using calculus of complex variable.
CO4 Explain Conformal Transformations and the concept of contour integration for
evaluating real definite integrals.
MA: 51
C301 Mathematics V SemesteR - V
Theory
100 marks
Sessional
50 Marks
Mapping of COs with POs
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PS
O1
PS
O2
CO
1 2 2 1 1 2
CO
2 2 2 1 1
CO
3 2 2 1 1
CO
4 2 2 1 1
Av
g 2 2 1 1 2
MA51: Numerical Analysis and Complex Variables
Module 1: Numerical Analysis (2 credits) [25 lectures]
Interpolation, Finite differences, Newton-Gregory forward and backward interpolation,
Newton’s and Lagrange’s formulae for unequal intervals, Sterling’s and Bessel’s
interpolation formulas.
Numerical differentiation, Numerical Integration: Trapezoidal and Simpson’s 1/3rd and 3/8th
rules for numerical integration. Solution of Transcendental and polynomial equations,
Bisection,Regula-Falsi and Newton-Raphson method. Solution of simultaneous linear
equations:Gauss elimination and Gauss-seidel iterative method. Solution of ordinary
differential equation:Taylor’s series, Runge-Kutta (4th order) and Milne’s predictor-corrector
methods.
Module 2: Complex Variables: (2 credits)[25 lectures]
Functions of complex variables, Elementary functions, Analytic functions,Cauchy-Riemann
equations, Harmonic functions and their application to two-dimensional problems.
Conformal transformation.
Complex line integral, Cauchy’s integral theorem Cauchy-Goursat theorem(without proof),
Cauchy’s integral formula, Liouville’s theorem, Morera’s theorem. Taylor’s theorem ,
Laurent’s theorem (without proof). Singularities, Residue theorem and its applications.
TextBooks/References
1. Finite Differences and Numerical Analysis By H.C. Saxena,S.Chand and Company.
2. Numerical Analysis By Gupta and Malik
3. Complex Variables By J.N. Sharma
4. Complex Variables and applications By R.V.Churchill and J.W. Brown
COURSE TITLE: Object Oriented Programming
COURSE CODE: CS-51
Theory: 100 Sessional: 50
COURSE OUTCOMES:
OOP1: To explain representation and operations on linear data structures
OOP2: To explain representation and operations on non-linear data structures
OOP3: To list the underlying concepts of object oriented programming.
OOP4: To demonstrate C++ language features like classes, inheritance, access
control, abstract class, operator overloading, virtual function, friend function, streams
and pointers by writing example programs.
OOP5: To build C++ programs for implementation of data structures.
CO-PO MAPPING:
CO
s
PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 2 1 2 3
CO
2 2 1 2 3
CO
3 2 3
CO
4 2 2 1 3
CO
5 3 3 3
avg 2.2 1
2.2
5 1 3
SYLLABUS:
Fundamental Notating: Primitive and composite data types, Dependence of algorithms on
data structure.
Data structures: Linear lists, stakes, queues, arrays, link-lists, spose matrices (transpose and
multiplication algorithms), trees and graphs (binary tree traversing, dfs and bfs algorithm,
connected components algorithms, spanning tree algorithm) --- their representation in
sequential storage and link lists and algorithms for manipulation operation.
Concept of object-oriented programming: Object-oriented language features- object,
classes, instances, inheritance, class library, abstraction, polymorphism, encapsulation,
dynamic binding, operator overloading.
Study of following features of C++ : Review of C language, class, objects, operator
overloading, inheritance, containership, arrays and strings; virtual, friend and static functions,
abstract classes, pointer in C++, files and streams, features of graphic functions in C++.
TEXTBOOKS:
1. Data structures in Pascal – Horowits and Sahni.
2. Object- oriented programming with C++ -- E. Balaguruswami.(TMH)
3. Programming with C++ - John R. Hubbard, Ph.D ( Schum’s Series) McGraw Hill
International Editions
COURSE TITLE: Advanced Electronics
Semester: 5th sem.
COURSE CODE: EE-51
Theory: 100 Sessional: 50
Practical: 50
COURSE OUTCOMES:
AE1: Explain the various fabrication techniques of monolithic ICs.
AE2: Analyze power amplifiers e.g. Class A, B, AB, C, D, E and various transistor
oscillators.
AE3: Design differential amplifier and Operational amplifier circuits.
AE4: Analyze linear and nonlinear applications of opamp.
AE5: Develop first and second order passive or active filters.
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 2 1 2
3
CO2 2 2 1 2
CO3 2 3 2
CO4 3 2 2
CO5 3 2 2
SYLLABUS:
1. Transistor High Input Impedance and Power Amplifier: Need for High input
impedance amplifier, Emitter follower; Darlington amplifier; Tuned amplifier; Class-A,
Class-B, Class-AB and Class-C amplifiers; Distortions in power amplifiers.
2. Transistor Oscillators: Positive feedback and Barkhausen criterion for sustained
oscillations; Classification of oscillators, Tuned collector oscillator; Hartley oscillator;
Colpitt’s oscillator, RC oscillators, Crystal oscillator.
3. Linear Integrated Circuits: Classification and fabrication of ICs, Integrated difference
amplifiers; Biasing techniques; Operational amplifier; Characteristics and specification of
OPAMPs; OFFSET compensation; FET OPAMPs.
4. Linear Applications of OPAMPs: Open loop operation of OPAMPs; Voltage-series and
current-series feedback; Non-inverting and inverting configurations of OPAMP circuits;
Instrumentation amplifiers; V to I and I to V converters; Summing scaling and averaging
amplifiers; Log and antilog amplifiers; Integrators and differentiators; Electronic analog and
computation.
5. Non Linear Applications of OPAMPs: Comparators; Schimitt trigger; Voltage limiter; F
to V and V to F converters; OPAMP oscillators; OPAMP multivibrators; Triangular and
sawtooth wave generator; Clipper, clamper, peak detector; Sample and hold circuit.
6. Active Filters: Classification of filters; Butterworth RC filters of various types and orders
using OPAMP; High Q band pass and band stop filter; All pass filters; Universal active filter;
Switched capacitor filter.
7. Specialized IC Applications: The 555 timer IC; PLL, voltage regulator ICs; DAC, ADC
ICs.
TEXTBOOKS:
1. Integrated Circuit Electronics - Millman and Halkins
2. Microelectronics- Millman
3. OPAMP and Linear IC Applications - Ramakant and Gayakwad
4. Linear Integrated Circuit--Roy Chowdhury and Jain
COURSE TITLE: Electrical Measurement-II (EE52)
COURSE CODE: EE-52
Theory:100 Sessional:50
COURSE OUTCOMES:
EM-II1: Apply AC and DC bridges to measure electrical parameters (R/L/C) of various
ranges.
EM-II2: Explain magnetic measurement and characteristics.
EM-II3: Identify measuring methods and testing methods for High Voltage equipments,
cables
and circuits.
EM-II4: Explain measurement of various non electrical parameters.
CO-PO MAPPING:
CO
PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 2 2 1
CO
2 2
CO
3 1 1
CO
4 2 1
2.3 2 1.5 1 2 1
SYLLABUS:
(1) Introduction: D.C Potentiometer, Basic D.C Potentiometer Circuit, Cromtonn’s Potentiometer, Multirange
Potentiometer, Standard Cell Dial, Volt-Ratio Box, Application For The Measurement Of
Voltage,Resistance And Power, Calibration Of Voltmeter, Ammeter And Wattmeter. Self
Balancing Potentiometer, A.C Potentiometer—Principle and Classification, Gall-Tinslay A.C
Potentiometer, (Co-Ordinate Type), Drystal Polar Potentiometer, Standardization, Errors And
Applications.
(2) Measurement Of Resistance:
Idea Of Low, Medium& High Resistance, Measurement Of Medium Resistance By
Ammeter-Voltmeter Method, Substitution Method, Wheatstone Bridge Method,
Measurement Of Low Resistance By Kelvin Double Bridge Method, Difficulties Of
Measurement High Resistances, Use Of Guard Circuit, Loss Of Charge Method,
Measurement Of Insulation Resistance With Power On, Factors Effecting Earth Resistance,
Methods Of Measuring Earth Resistance.
(3) A.C Bridges:
General Form Of A.C Bridge, Maxwell’s Inductance Bridge, Maxwell’s
Inductance/Capacitance Bridge, Hay’s Bridge, Anderson’s Bridge, Owen’s Bridge, High
Voltage Schering Bridge, Heaviside Mutual Inductance Bridge, Campbell’s Modification Of
Heaviside Bridge, Heaviside –Campbell Equal Ratio Bridge, Cary-Foster Bridge, Wien’s
Bridge, Sources Of Errors In Bridge Circuits, Shielding Of Bridge Elements, Wager Earthing
Device.
(4) Magnetic Measurement:
Different Magnetic Measuring Quantities, Flux Measurement By Fluxmeter, Principle Of
Magnetic Potentiometer, Ewing Double Bar & Illiovici Permeameter, Determination Of B-H
Curve And The B-H Loop By The Method Of Reversal And Step By Step Method,
Hysteresis Loss Measurement By Wattmeter Method, Bridge Method And Potentiometer
Method.
(5) Transducers: Classification And Selection Of Transducers, Construction Principle And Applications Of
Diaphragms, Bellows, Bouden Tubes, Springs, Capacitive Pizeoelectric And Photoelectric
Transducers.
(6) High Voltage Measurements And Testing:
Types Of Tests, High Voltage Transformers, Voltage Control By Variation Of Alternator
Field Current, Tapped Transformers, Induction Regulators, Control Gear And Protective
Devices, Equipment For Voltage Measurement, Measurement Of R.M.S, Peak, Instantaneous
Values Of Voltages, Low Frequency High Voltage Tests, High Voltage D.C Testing, High
Voltage D.C Testing Of Cables, Localization Of Faults In H.V Cables, High Frequency H.V
Testing, Surge Testing, Basic Impulse Generator, Testing Of Insulating Material, Impulse
Testing Of Transformer, H.V Testing Of Cables, Testing Of Strength Of Insulating Oils, H.V
Testing Of Porcelain Insulators.
TEXTBOOKS:
1) Elect. Measurement & Measuring Instruments – Golding E.W & Wides F.C
2) A Course in Elect. & Electronics Measurement & Instrumentation- Shawney A.K
3) Elect. Measurement & Measuring Instruments—Suryanarayan.
COURSE TITLE: Electrical Engineering Materials Semester: 5th sem.
COURSE CODE: PH-51
Theory: 100 Sessional: 50
COURSE OUTCOMES:
EEM1: Interpret solids based on knowledge of crystal structure.
EEM2: Relate the working of devices with the Physics of conducting, magnetic, dielectric,
semiconducting & superconducting materials.
EEM3: Outline the applications of the different classes of materials.
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 2 1 2
2 CO2 3 2 2
CO3 2 2 2
2.33 1.667 2 2
SYLLABUS:
1. Crystal Structure: Unit cell and Bravais lattice; Bravais lattice in tow-dimensional and
three-dimensional crystal structures; Direction and planes in a crystal lattice: Miller indices;
Crystal structures of solids-LCC, FCC, BCC, simple cubic and diamond structures; X-ray
diffraction and Bragg’s law.
2. Conductor Materials: Free electron theory of metals-conductivity, drift velocity,
relaxation time, collision time and mean free path; Fermi-Direc distribution; Temperature and
impurity effect; Frequency effect; Effect of magnetic fields-Hall effect and
megnetoresistance; Heat developed in current carrying conductors; Thermal conductivity;
Conductor materials-choice of conductor materials, high conductive materials, materials of
high resistivity, materials for fuse and soldiers, materials for lamp filaments, thermoionic
materials; Superconductivity-basic theory and application.
3. Semiconductor Materials: Intrinsic semiconductors- chemical bond in ST and Ge,
Energy band in semiconductors, Density of charge carriers, Conductivity of intrinsic
semiconductors; Extrinsic semiconductors; Doping in semiconductors, Effect of doping in
electrical conductivity, p-type semiconductors, density and mobility of charge carriers; Hall
effect; Drift current and defusion currents; Einstein relation; Fabrication of PN junction, PNP
junctions and integrated circuits; Social applications of semiconductors-nonlinear
resistors(Varistors), themistors, alloy semiconductors- like Ga-As, Ga-I-As, Ga-I-Al , etc.
used in optoelectronic devices.
4. Magnetic Materials: Magnetic parameters-permeability and magnetic susceptibility;
Magnetic dipole moment and angular momentum; Classification of magnetic materials;
Diamagnetism; Paramagnetism; Ferromagnetism and Curie-Wiess law; Ferrimagnetism;
Magnetic domain; Magnetic anisotrophy and magnetostriction; Ferrimagnetic materials.
5. Dielectric Materials: Dielectric parameters-Dielectric constant, dipole moment,
polarization and polarizability, Clausius-Mosotti equation; Mechanism of polarization-
electronic polarization, ionicpolarization and dipolar polarization; Frequency dependence of
polarizability; Dielectric losses; Ferroelectric materials their properties and classification;
Piezoelectricity; Mechanism of dielectric breakdown of gases; Liquids and solids; Factors
influencing dielectric strength; Insulating materials; Properties of common insulating
materials used in electrical apparatus like mica, asbestos, glass, bakelite, porcelain, rubber,
paper, cotton, silkfiber, wood, plastics, PVC resins, varnishes, insulating oil and liquids,
gaseous insulator etc.
TEXTBOOKS:
1. Electrical Engineering Materials----A. J. Dekker (Prentice Hall, India)
2. Science of Engineering Materials---C. M. Srivastava and C. Srinivasan (WE)
3. An Introduction to Engineering Materials---C. Indulkar (S. Chand & Company)
4. Electrical Engineering Materials---G. P. Chalotra & B. K. Bhatt.
COURSE TITLE: Introduction to Chemical Process
Semester: 5th sem.
COURSE CODE: IN-51
Theory: 100 Sessional: 50
COURSE OUTCOMES:
ICP1: Explain the concept of Chemical Process. Also explain the material balance and
energy balance for analysis of unit processes and unit operations.
ICP2: Illustrate the concept of Fluid Mechanics
ICP3: Illustrate the concept of different mode of heat transfer; Explain different heat transfer
equipment
ICP4: Explain the concept of mass transfer. Also summarize batch reactors and continuous
flow reactors.
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2 1
CO2 3 2
CO3 3 2
CO4 2
2.75 2 1
SYLLABUS:
1) CHEMICAL AND PHYSICALES PRINCIPLES: - Chemical formulas, chemical
equations, Temperature, pressure and Gas laws.
2) UNIT OPERATION:-- The scientific foundation of unit operation, basic laws, material
and energy balance. Dimensional and dimensionless equation, dimensional analysis.
Classification of units operation e.g. fluid flow, heat transmission, blending operation,
separation process, solid handling etc. Classification of chemical process e.g. combustion,
oxidation, halogenation, hydrogenation, fermentation etc.
3) FLUID MECHANICS: Energy and momentum relationships, nature and type of fluid,
ideal and non-ideal gas. Compressible and incompressible fluid, basic equation of fluid flow,
flow through pipe, fittings and valves, pumps, compressors and blowers, calculation of power
and size of agitated vessel.
4) HEAT TRANSFER: -- Mode of heat transfer, steady and unsteady conduction-Fourier’s
law, introduction to convection, individual and overall heat transfer co-efficient, nature and
force convection with and without phase change, viscous, transition and turbulent region.
Design of heat transfer equipment e.g. heat exchanger, condenser, furnace and evaporators.
Radiant heat transmission, energy emitted by black body, laws of black body radiation.
5) MASS TRANSFER:-- Fundamental, theory of diffusion, comparison of diffusion and
heat transfer, fick’s law, equimolal diffusion, diffusivity of gases and liquid, turbulent
diffusion, mass transfer co-efficient and film theory, penetration theory. Experimental
measurement of mass transfer and design of mass transfer equipment e.g. absorbers, plate and
packed column. Separation process by membrane. Flash distillation of binary mixture,
continuous distillation with reflux.Equilibrium stage calculation, no of ideal plate, McCabe-
Thiele method.
Definition of rate reaction, the general balance equation, batch reactors continuous flow
reactors both isothermal and non-isothermal operations, Industrial reactors, Stoichimetric
relationship and reactor T
TEXTBOOKS:
(1). McCabe W L, Smith J.C.; Peter harriott. H- Unit Operation of chemical Engg McGraw
Hill
(2) Levenspiel O ―Chemical Reaction Engg‖ Wiley Eastern Pvt Ltd. New Delhi.
(3) Himmelban D.H: ―Basic Principles and Calculation in Chemical Engg.‖ Prentice Hall of
India
Reference Books
1. Coulson, J. M; Rechardson J. F; ―Chemical Engineering ― Pergamon International
Library.
2. Williams T Edwin ; Jonson Curtis R; ―Stoichiometry for Chemical Engineers‖ McGraw
Hill Book Co.
3. Haugen , O. A; Watson K. M; Ragatz R. A. ―Chemical Process Principle‖ Asia Publishing
House.
4. Fogler H C; ―The Elements of Chemical Kinetics and Reactor Calculation‖ Prentice Hall
International Series in Physical and Chemical Engineering Sc.
5. Denbigh K. G; Turner J. C. R; ―Chemical Reactor Theory‖ The English Language Book
Society and Chembridge University Press.
6. Noble F. D. and Stern A. A. ―Membrane Separation Technology Principles and
Application‖ Elsivier.
COURSE TITLE: Advanced Electronics Lab
Semester: 5th sem.
COURSE CODE: EE-51L
COURSE OUTCOMES:
CO1: Implement different circuits using Op Amp for various applications.
CO2: Interact Effectively on a social & interpersonal level with fellow students
CO3: Share task responsibilities to complete assignments and ethically develop professional
and technically sound reports
CO-PO MAPPING:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 2 2 1
CO2 1 1 1 3 2
CO3 3 3 2 2
2 2 1 2 2 2.5 1.6667
SIX SEMESTER
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Practical
1 C308 HS-61 Principles of Economics &
Accountancy
100 50 -
2 C309 EE-61 Communication Engineering 100 50 -
3 C310 EE-62 Microprocessors-I 100 50 -
4 C311 EE-63 Electrical Machines &
Applications
100 50 -
5 C312 IN-61 Analytical Instruments 100 50 -
6 C313 IN-62 Drawing & Design of
Instrumentation System
Components
- 100 -
7 C314 EE-62L Microprocessors-I Lab - - 50
8 C315 EE-63L Electrical Machines &
Applications Lab
- - 50
Course Outcomes: Upon completion of the course, students shall be able to
CO1 Explain the fundamental concepts of economics.
CO2 Apply the basic concepts of managerial economics.
CO3 Explain banking, nature and different sources of public revenue and five years
HS-61
C309
PRINCIPLES OF
ECONOMICS AND
ACCOUNTANCY
SEMESTER -
VI
Theory
100 marks
Sessional
50 Marks
plan.
CO4 Explain the basic accounting terms, procedure of recording transactions, the
preparation of bank reconciliation statement and cash book.
CO5 Outline the procedure of preparation of trial balance, trading account, profit &
loss account and balance sheet.
Explain cost estimation procedure by preparing cost statement.
Mapping of COs with POs
COs PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO309.1 1 - - - - - - - - - 2 1
CO309.2 1 - - - - - - - - - 2 1
CO309.3 1 - - - - - - - - - 2 1
CO309.4 2 - - - - - - - - - 2 1
CO309.5 2 1 - - - - - - - - 2 1
CO309.6 2 1 - - - - - - - - 2 1
C309 1.5 1 2 1
COMMUNICATION ENGINEERING(EE61)
Theory:100 Sessional:50
Course Outcomes :
At the end of the course, student will be able
CO1: Explain various types of signals, Fourier series & transform, energy & power spectral
density of signal, ideal filters like LPF, BPF and communication channels.
CO2: Illustrate different distributions and noise.
CO3: Analyze concepts of analog modulation in both time and frequency domains.
CO4: Explain pulse modulation systems, Digital modulation and Information theory.
CO5: Explain propagation modes of various waves and basic antenna structures.
Mapping of COs with POs
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2 1
1
CO2 3 2 1 1
CO3 3 1 1
CO4 3 1 1
CO5 2 1 1
2.8 2 1 1 1
Introduction: An over view of communication process-electronic communication.
(1) Signals and spectra:Classification of signals,spectrum of signal,Fourier series and Fourier transform,Convolution,singularity function,Fourier transform of periodic
signals,Hilbert transform,normalised power,Parseval’s theorem,Raligh’s
theorm,spectral density,correlation between wave forms-cross correlation and
auto-correlation,signal transmission through a linear time invarient
system,transfer function,impulse response,ideal filter-
LPF&BPF,causality,practical filters,typical communication channels,distortion
less transmission,signal transmission through BPF-pre envelope and complex
envelope.
(2) Random signals and noise:Review of probability theory,random variables,probability distribution functions&probability density function,joint
probablity,Gaussian distribution,Raleigh’s distribution and exponential
distribution,error function,random processes,average and variance of random
processes,source of noise,noise as a random process,white noise,noise
transmission through LTI system,SNR,noise temperature,available power of a
noise source,calculation of rms noise voltage,noise equivalent resistance of an
amplifier,noise figure.
(3) C.W modulation and detection:Need for modulation,amplitude modulation,AM
modulators-low level and high level modulation techniques,AM detectors,superheterodyne reciever princples,ICIC reciver for AM,frequency
modulation-NBFM&WBFM,FMmodulators,FMdetectors,noiseinFM
systems,phase modulation,supressed carrier modulation-DSB-SC&SSB-
SC,generation and detection of SC modulation system,phase and frequency error in SC modulation system,FDM.
(4) Pulse modulation:Nyquist sampling theorem,pulse modulation system-
PAM,PWM,PPM,aliasing,naturalsamplingandflattop
sampling,quantization,quantization error,PCM,companding,TDM,cross top,differential PCM,delta modulation,adaptive DM.
(5) Electromagnetic wave propagation:Electromagnetic radiation,propagation
modes of EM waves-ground wave,sky wave,space wave,tropospheric scatter,extra
terrestrial communication,dipole antenna,resonant antenna ,non resonant
antenna,Marconi and Hartz antenna, antenna coupling at medium frequencies,directional high frequency antenna,microwave antenna,wide band antenna.
Ref. Books:
(1) Principles Of Communication Systems-Taub & Schilling.
(2) Communication Principles-Simon Haykin.
(3) Analog And Digital Communication Systems-Martin Roden.
(4) Electronic Communication Systems-George Kennedy.
MICROPROCESSORS –I(EE62)
Theory:100
Sessional:50
Practical:50
CO1: Illustrate the architecture of microprocessor along with its peripherals.
CO2: Apply different 8085 instructions.
CO3: Construct assembly language program for microprocessor applications.
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 1 2 1 3
CO
2 3 2 1 2 1
CO
3 3 2 1 2 1
3 2 1 2 1 3
1. Introduction to Microprocessors and Microcomputers : Evolution of
Microprocessors & Digital Computers ; Single chip Microprocessors ;
Microprocessor applications ; Microcomputer programming languages ; Large
& small computers ; Supercomputers ; Main frame (Large) computers, Minicomputers and Microcomputers.
2. Microcomputer System Peripherals : Microcomputer displays ; Raster
scan CRT graphics display ; CRT terminals ; Raster scan colour graphics ; Vector scan CRT display ; Alphanumeric / Graphics LCD display ; Keyboard ,
Mouse and other input devices ; Computer vision ; Mass data storage systems-
floppy disc, hard disc, optical disc : Printer mechanisms ; Speech synthesis and recognition by computer.
3. Microcomputer Architecture : Basic blocks of microcomputer ; Typical microcomputer architecture ; Microcomputer bus ; Clock signal ; Single chip Microprocessor ; Register sections ; Control unit ; ALU ; Functional representation of simple and typical Microprocessors ; Processor memory – primary, secondary and cache memory ; Memory array design and interfacing ; Input/ Output – programmed I/O , Interrupt I/O , Handshaking signals , Standard I/O versus Memory mapped I/O ; Main characteristics of interrupt I/O ; Interrupt types ; Interrupt address vector; Interrupt priorities ; Polled
interrupt ; Daisy chain interrupt ; DMA and different types ; Coprocessors.
4. Microcomputer Software Concept : Instruction format ; Addressing modes ; Instruction types ; Instructions for Assembly Language Programming.
5. INTEL 8085 Microprocessor : Introduction ; Register structure ; Memory addressing ; Addressing modes ; Instruction sets ; Timing methods ; CPU pins and associated signals ; Instruction timing and execution ; T-state and Machine cycle ; Timing diagrams ; Programmed I/O ; Interrupt systems ; DMA operations ; SID & SOD lines ; 8085 based system design.
6. INTEL 8085 Programming : Writing ALP ; Debugging of Program ; Programming techniques – looping , counting and indexing , counters and time delays , stack and subroutines ; Code conversion – BCD arithmetic and 16-bit data operations.
7. MDS and Other Development Aids : Introduction to MDS ; Hardware &
software support to MDS ; PROM programmer ; EPROM eraser ; Simulators
and Emulators ; Monitor : Operating systems ; File manager ; Linker ; Loader
; Locator; Debugger ; Assembler ; Text editor ; Compiler ; System software ; Application software ; Utility program ; BIOS.
Reference Books :
1. Microprocessor theory and Applications - M. Raffiqzzaman ( Mc Graw Hill Ltd)
2. Microprocessor Architecture , Programming & Applications – R.S. Goankar
Electrical Machines and Application(EE63)
Theory:100 Sessional :50 Practical:50
COs Statement
EMA1 Explain constructional details and principle of operation of AC machines, DC machines
and transformers.
EMA2 Choose suitable method of speed control of DC motor and 3-phase induction motor for
various societal and industrial applications.
EMA3 Analyze performance of Transformers and 3 phase Induction motor using phasor
diagram and equivalent circuits.
EMA4 Explain the characteristics and applications of dc machines, 3 phase induction motor and
Alternator.
EMA5 Analyze performance of DC machines and synchronous machines.
EMA6 Identify suitable electrical machines for different applications.
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2
CO2 3 2
CO3 2 3 1
CO4 3 1
CO5 2 3
CO6 3 3
1. D.C generator: Construction and principle of operation; Armature windings- Lap
and Wave windings, Equaliser rings, dummy coils; E.M.F equations, Types of d.c. generators, Armature reaction; Compensation windings, Commutations and
methods of improving commutation; Characteristic of separately excited self
excited generators; Applications of d.c. generators; Losses and efficiency.
2. D.C Motor: Construction and principle of operation; Back e.m.f; Torque
equation; Condition for maximum torque; Losses and efficiency; Type of d.c. motor; Speed regulation; characteristic of shunt, Series and compound motors;
Application of d.c. motors; Starting of d.c. motors; Speed control of d.c. motors.
3. Transformer: Working principle; Construction of core type and shell type
transformer; e.m.f equation; Transformation ratio; Resistance and magnetic lekage
reactance; No-load and on-load phasor diagrams; Equivalent circuits; Losses and
efficiency; Open circuit and S.C testes; Voltage regulation; Condition for
maximum efficiency; All-day efficiency; Autotransformer.
4. Three-phase induction motor: Classification of a.c. motors; General principle;
Construction and classification; Theory of operation, slip and frequency of rotor current; Torque and torque-slip characteristic; Starting torque; Condition for
maximum torque; Losses and efficiency; Starting of induction motor.
5. Single phase motor: Type of single phase motors- Single phase induction motor-
double revolving field theory; Torque-speed characteristics; Split phase motors-
resistance start; Capacitor start, permanent capacitor and capacitor start-capacitor
run motors; Shaded pole motors; Single phase commutator motors-repulsion
motor, repulsion start induction motor; repulsion induction motor; A.C. series
motor-universal motor; Reluctance motor and hysteresis motor.
6. Alternator: Classification; Construction of cylindrical and salient pole alternator;
Armature winding and winding factors; e.m.f equation; Armature reaction, armature reaction and impedance; Phasor diagram; Voltage regulation; O.C and
S.C tests; Determination of voltage regulation by synchronous impedance method
and AT method.
Ref. Books:
7) Theory of A.C Machinery- A.S Langsdrof (TMH)
8) Elect. Machines-Nagrath & Kothari (TMH)
9) Performance & Design of A.C Machines- M. G Say
10) Advanced Elect. Technology- H. Cotton
11) Fundamentals Of Elect. Machines – B.R Gupta & V. Singhal (New Age)
12) Prblems in Elect. Engg.- N.N Parker Smith)
6 TH SEMESTER
B.E (INSTRUMENTATION ENGINEERING)
ANALYTICAL INSTRUMENTS(IN61)
Theory:100 Sessional :50
On Completion of this course the students should be able to
C312.1 Compare various analytical instruments with other instruments.
C312.2 Apply an analytical instrument in measuring relevant chemical
parameters.
C312.3 Analyze various analytical instrumentation techniques.
C312.4 Explain the functioning of gas analysis instruments.
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 2
3 1
CO2 2 2
CO3 1 3 1
CO4 3
1. Introduction: Difference between analytical and other instruments , on line
instrumentation and laboratory techniques for liquid and gases for analysis purpose.
2. Gas analysis: Gas chromatography, thermal conductivity method, heat of reaction
method, estimation of oxygen, hydrogen methane, carbondioxide, carbon monoxide
etc. in binary and complex gas mixtures.
3. Humidity and moisture measurement techniques.
4. Chemical composition analysis, measurement of viscosity, consistency, PH, electrical
conductivity.
5. Techniques of density measurement: solid, liquid and gases.
6. Spectro chemical analysis: MSS, emission and absorption spectrometry, dispersive
and non dispersive techniques.
Ref. Books:
1. Patranabis.D.- Principles Of Industrial Instrumentaton.
2. Jones.E.B. - Instrument Technology, Vol II Analysis Instruments Butter-Worths Scientific
Publication, London.
3. O higgins P S - Basic Instrumentation In Industrial Measurement-Mc- Graw Hill Book Co.
4. Hand Books Of Analytical Instrumentation
SUB.CODE-IN-62
6TH SEMESTER B.E.(INST. ENGG.)
DRAWING AND DESIGN OF INSTRUMENTATION SYSTEM COMPONENTS
Sessional :100
Course Objective:
To provide basic concepts of Design and Drawing of Instrumentation system
Course Outcomes: On Completion of this course the students should be able to
COs Course Outcomes
CO1 Develop Drawing for Instrumentation System Components.
CO2 Analyse various instrumentation system Components using modern LabVIEW and
multisim
CO3 Adopt professional ethics and responsibilities.
CO4 Communicate instruction delivery for working and making drawings.
Cos
PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 2 2 2 2
CO
2 3 2 3
CO
3 3
C0
4 3 3
1. Design and drawing of mechanical components- linkages, gears, pivots, bearings, springs dampers etc.
2. Design of electrical components-permanent magnets, electromagnets, small transformers, relays, LVDT, variable capacitance transducers, variable resistance
transducers, strain gauges, display and recording devices.
3. Instrumentation amplifiers.
4. Design of transducers with associated circuitry, interface of primary elements with end devices, design of bridge circuits for thermocouples and thermistors.
5. Design of pneumatic and electronic controllers.
Ref.Books:
1. Neubert H K P- Instrument Transducers- An Introduction to Their Performance And
Design-Claredon Press, Oxford.
2. Trylinsky W -Fine Mechanism And Precision Instruments: Principles Ofdesign,
Pergaman Press, Oxford
Course Title: Microprocessor_I Laboratory
Course Code: EE62L Semester of Study: 6th
CO1: Demonstrate the results of different arithmetic operations like addition ,
subtraction,multiplication,and division with 8085.
CO2: Find the results of different 8085 instructions.
CO3: Apply different arithmetic,logical,data transfer and implicit instructions of 8085
for various microprocessor applications.
Interface different peripheral devices with 8085.
CO4: Interact Effectively on a social & interpersonal level with fellow students to
receive clear procedural instructions.
CO5: Share task responsibilities to complete assignments and ethically Develop
professional and technically sound reports.
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3 2 1 2 1
1 2
CO2 3 2 1 2 1
CO3 3 2 1 2 1
CO4 1 3 3 2
CO5 3 3 3 2
Experi
ment
No.
Title of the Experiment Objective of the Experiment
1 Addition of two 8-bit
numbers
To write a assembly language program for adding 2 bit (8)
numbers by using-8085 micro-processor kit.
2 Subtraction of two 8 bit
numbers.
To write a assembly language program for subtracting 2 bit (8) numbers by using-8085 micro-processor kit.
3 Addition of two 8 bit
decimal numbers.
To write a assembly language program to add two 8 bit
decimal numbersby using-8085 micro-processor kit.
4 To find the 2’s complement
of an 8-bit number.
To write a assembly language program to find the 2’s
compliment of an 8 bit decimal numbers by using-8085
micro-processor kit.
5 To find the larger of the two
numbers. To write a assembly language program to find the larger of
the two numbers (04H and 08H) by using-8085 micro-
processor kit.
6 To arrange three numbers in
descending order.
To write a assembly language program to arrange 3
numbers in descending order by using-8085 micro-
processor kit.
7 To find the summation of
series of four 8-bit numbers.
To write a assembly language program tofind the
summation of series of four 8-bit numbers by using-8085
micro-processor kit.
8 To multiply two 8-bit
numbers.
To write a assembly language program tomultiply two8-bit
numbers by using-8085 micro-processor kit.
9
To divide 16 bit number by
8 bit number.
To write a assembly language program to divide 16 bit
number by8-bit numbers by using-8085 micro-processor
kit.
Text book:
“Microprocessor Architecture, Programming and Applications
with 8085” by R S Gaonkar,
“Fundamentals of Microprocessors and Microcontrollers” by B Ram
Course Title: Electrical Machines and Application Laboratory
Course Code: EE63L Semester of Study: 6th
COs Statement
EMA1 Interpret the constructional details of the DC machines, Transformers and
alternators
EMA2 Work in a team sharing individual responsibilities to conduct Experiment with DC
generators (Shunt and series), Transformers and alternators to model different
performance characteristics (such as internal, external and OCC)
EMA3 Analyse the various speed control techniques for DC shunt motor sharing
individual responsibilities in a group.
EMA4 Interact Effectively on a social & interpersonal level with fellow students to
receive clear procedural instructions.
EMA5 Share task responsibilities to complete assignments and ethically Develop
professional and technically sound reports.
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 3
2
CO2 2 2 3 2
CO3 2 1 3 2
CO4 1 3 3 2
CO5 3 3 3 2
Experi
ment
No.
Title of the Experiment Objective of the Experiment
1 Open circuit characteristics
of a DC generator To draw the open CIRCUIT CHARACTRISTICS (OCC) or
magnetization characteristic and to determine the critical
field resistance and the critical speed of a DC shunt
generator.
2 Load test on a shunt
generator
To determine the external and internal characteristic of a
DC shunt generator.
3 Characteristic of a dc shunt
generator
To determine the external and internal characteristic of a
DC series generator.
4 Speed control of a dc shunt
motor
I.
To control the speed of a DC shunt motor by the method of
a. Armature control and
b. Flux control or field control
c.
5 Open circuit test and short
circuir test on a single phase
transformer
To perform open circuit test and short circuit test on a
single phase transformer and to calculate the parameters of
the equivalent circuit. Also to estimate the efficiency and
regulation of the transformer for the full range of loading.
6 Polarity test and load test on a
single phase transformer
To perform polarity test on a single phase transformer also
to estimate the efficiency and regulation of the transformer
for the full range of loading.
7 Regulation of an alternator To perform the open-circuit and short-circuit tests on a three
phase alternator and to determine the regulation by
synchronous impedance method
8 Measurement of power in
three phase circuit by two
wattmeter method
To measure the power and power factor in a three phase
balanced circuit by two wattmeter.
Text book
Electrical Machines, D P Kothari and R J Nagrath
Semester-VII
Sl.
No
SAR
Code
Course
Code
Course Title Theor
y
Sessional Viva
1 C401 HS-71 Industrial Organisation and
Management
100 50 -
2 C402 EE-71 Microprocessors-II 100 50 -
3 C403 EE-72 Power Electronics 100 50 -
4 C404 IN-71 Optoelectronics 100 50 -
5 C405 IN-72 Elective-I 100 50 -
6 C406 IN-73 Project-I - 100 50
Elective-I
1. Biomedical Instrumentation (IN-72)
2. Advanced Communication (EE-735)
3. Artificial Intelligence (CS-723)
4. Digital Image Processing (CS-726)
5. Electronic Instrumentation (IN-74)
6. Interactive Computer Graphics (CS-729)
Course Outcomes (COs): Upon completion of the course, students shall be able to
CO1 Demonstrate the concept of group dynamics, industrial psychology, organization,
types of organization, and functions of management.
CO2 Explain plant layout and location, locational economics and scheduling, routing
& dispatching in production planning.
CO3 Make use of decision and productivity improvement tools in SME- enterprises
and entrepreneurial ventures.
CO4 Explain quality management, maintenance management, project management,
inventory management and the safety norms to be adopted in workplace.
CO5 Explain the meaning and importance of management, functions and principle of
management, material management.
Illustrate the meaning and importance of financial planning, concept of capital,
HS: 71
C401
Industrial Organization And
Management Semester - Vii Theory
100 marks
Sessional
50 Marks
sources of finance, budget and budgetary control system.
Apply the meaning and concept of cost relevance to management decisions and
control, breakeven point, break even analysis.
Mapping of COs with POs:
CO PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12 PSO1 PSO2
CO1 2 1 1
CO2 2 1 1
CO3 2 1 1 1 1 1
CO4 2 1 1 1 1 1
CO5 2 1 1 1
CO6 2 1 1 1
CO7 2 1 1 1
Avg 2 1 1 1 1 1 1 1 1
Detailed Syllabus
Unit Course No. of
Lectures Marks
I
Concept of Group Dynamics, Industrial Psychology,
Organization, Types of Organization, Functions of
Management 5 5
II
Plant Location and Locational Economics, Methods of
Locational Analysis, Plant Layout- Types, Scheduling,
Routing and Dispatching
15 10
III
Decision Tools, Decision Tree, Productivity: Definition,
Factor Productivity, Productivity Improvement Tools, SME-
Entrepreneurship, Government Initiatives for Development of
SMEs
5 5
IV
Quality Management: Concept of Quality, Control Charts,
Latest Trend in Quality Management, TQM, ISO 9000 Series
Maintenance Management: Different types, Latest Trend in
Maintenance Management, TPM
Project Management: Definition of Project, Network Analysis,
PERT and CPM Inventory Management: Concept, EOQ
Model
Safety in Workplace, Fire and Safety
15 30
TEXT BOOKS:
1. Work Study by R.C. Patel
2. Plant Layout and Design by J. M. Moore Inventory Control by Starr and Miller
3. Mass Production by M.L. Riggs
4. Hand Book of Industrial Engineering by L. Grant Industrial Engineering
Detailed Syllabus
Unit Course No. of
Lectures Marks
I
Management: Concept, importance, principle, function of
Management in brief.
Industrial Finance : Importance and characteristic of a sound
financial plan, methods and principles of determining the
requirements, concept of capital, fixed and working capital,
meaning of capitalization, over capitalization and under
capitalization, sources of finance.
Budgeting: Business Budgeting, definition and importance,
Master Budget and its components, fixed and flexible budget,
benefits of budgetary control system.
Material Management: Meaning, objectives, aspects and benefits
of scientific management of materials.
Managerial Economics : Concept of costs, relevance to
managerial decisions and control, standard cost and standard
costing, opportunity cost, fixed and variable cost, marginal cost
and marginal costing, break event analysis, problem of break event
analysis.
25 50
Text books
1. Business Administration and Management by S.C. Saxena
2. Management Accounting by R.K. Sharma and S.K. Gupta
3. Cost Accounting Principle and Practice by S.P. Jain and K.L. Narang
4. Business organization and management by S.S. Sarkar, R.K. Sarma, S.K. Gupta
Course Title: MICROPROCESSOR-II
Course Code: EE71 Semester of Study: 7th
CO1: Illustrate the architecture of microprocessor along with the different peripherals.
CO2: Identify the different 8085/8086 instructions.
CO3: Apply assembly language instructions for interfacing input output devices with 8085
through general purpose programmable peripheral devices.
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 2 2
3 CO
2 3 2 2 2
CO
3 3 2 2 2
1) Peripheral Interfacing: Parallel versus serial transmission; Synchronous and Asynchronous serial data transmission; Universal Synchronous / Asynchronous
Receivers / Transmitters (USART) & Universal Asynchronous Receivers /
Transmitters (UART) ; 8251 Programmable communication interface.
General purpose programmable peripheral devices; 8155 & 8255 programmable
peripheral interfaces; 8253 programmable interval timer; 8259 programmable
interrupt controller; 8257 DMA controller; 8279 programmable key-board/
display
controller; Key debounce; 8-bit input/out-put port 8212; ADC & DAC interfacing;
Interfacing standard; IEEE 488 parallel interface bus; RS 232C serial interface.
2) Advanced Microprocessor & Microcontrollers: Intel 8086
microprocessor; Architecture of 8086 ; 8086 addressing mode; 8086 instruction
sets; Brief discussion & comparison of INTEL 8088 , 80186, 80188, 80286,
80386, 80486 & Pentium processors; Other 8-bit microprocessors- Z –80 &
Motorola 6800 ; 8-bit microcontroller; Architecture and programming of 8031/8051.
3) Microprocessor Based Applications: Digital clock, Traffic light controller, Hex key-board interface, Seven segment display interface, Stepper motor control, Washing machine controller, Microprocessor based protective relays, Measurement of electrical quantities, Measurement & control of non-electrical quantities.
Ref. Books:
1) Microprocessors & Interfacing- Douglas V Hall.
1) Microprocessors (Theory & Applications) : - M. Rafiqzzaman
2) Microprocessor Architecture Programming & Applications- Goankor
3) Fundamentals of Microprocessor & Microcomputers – B. Ram.
Course Title: POWER ELECTRONICS
Course Code: EE72 Semester of Study: 7th
CO1: Explain different types of Semiconductor power devices.
CO2: Solve problems related to rectifiers,inverters and DC to DC converters.
CO3: Illustrate construction of different types of cycloconverters.
CO4: Explain different types of AC voltage controllers and regulated power supplies.
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 1
3
CO
2 3 2 1
CO
3 3 2 1
CO
4 3 2 1
1) Semiconductor Power Devices : Characteristics of power devices – diode, power transistor, thyristor and triac; Firing circuits for thyristor & triac; Rating , cooling & mounting of thyristor; Series & parallel connection of thyristor ; Protection of Thyristor; Gate trigger & commutation circuits; Gate turn-off thyristor (GTO) ; Power MOSFET; UJT ; Diac & IGBT.
2) Rectfying Circuits: Circuit nomenclature, commutating diode, Single-phase
half wave; bi-phase half wave; single phase bridge uncontrolled, fully control &
half controlled rectifiers; 3-ph half wave, 6-ph half wave 3-ph bridge & 12-ph circuits; Transformer rating; Rectified with R-L & R-C loads; power factor
improvement; Excitation angle control; Symmetrical angle control; PWM & sinusoidal PWM.
3) Inverter: Principle of operation of inverter; voltage driven inverter; current driven inverter; Forced-commutated inverter; Classification of circuits for forced commutation; parallel inverter; poly-phase inverter; self commutated inverter; Bridge inverter; Mc Murray –Bedford commutation; Bridge circuit using Mc Murray –Bedford commutation ; 3-ph bridge inverter; current source inverter; PWM inverter; voltage control of 3-ph inverter; Harmonics reduction; inverter applications.
4) Chopper: Principle of operation of chopper; constant frequency operation; variable frequency operation; Classification- class A, class B, class C , class D & class E operation; Series turn-off chopper; Parallel capacitor turn-off chopper; Morgan chopper; Jones chopper.
5) Cycloconverters: Mathematical analysis; Bridge configuration; control circuits; improved cycloconverter circuits; Harmonic analysis; input characteristics ; circulating current mode; control; Envelope cycloconverter.
6) A.C Voltage Controllers: Introduction ; ON-OFF control ; phase angle control;
Single phase bi-directional controller with resistive load.
7) Power Supplies: D.C power supply; SMPS d.c power supply; Resonant d.c power supply; Bi-directional power supplies; A.C power supplies; UPS configuration; SMPS a..c power supplies; Power factor conditioning.
Course Title: Opto Electronics
Course Code: IN71 Semester of Study: 7th
Course Objective:
The objective of this course is to give the students the idea about different optoelectronics
devices and their applications.
Course Outcomes: On Completion of this course the students should be able to
COs Course Outcomes Level
CO1 Analyze different types of LED and Laser sources. L2
CO2 Select different photo detectors in analog and digital circuits. L1
CO3 Apply optical fibre to measure various physical parameters. L3
CO4 Compare Holographic data storage with other memories. L2
Mapping of Course outcome and Programme outcome and Programme Specific Outcome:
Course
Outcome
Programme Outcome PS01 PS02
1 2 3 4 5 6 7 8 9 10 11 12
CO1 2 2 1 1 2
CO2 2 2 1 1
CO3 2 2 1 1
CO4 2 2 1 1
Characteristics of optical radiation, Electro luminescence, Heterojunction LED,
Characteristics of Laser Radiation, Structure of gas and solid state laser, Pulse mode laser,
Semiconductor laser.
Internal and External Photo effects, Photo diodes, PIN diode, Shottky barrier diode,
Heterojunction diode, Barrier APD, Phototransistor, CCD, Optocouplers and their
applications in the analog and digital devices.
Optical fiber fundamentals, Modes in optical fiber, Step index and graded index fibers, Fiber
coupling, OTDR, Fiber optic sensor for industrial applications, Displacement, Pressure,
Acceleration, Force, Velocity and Flow sensor, Fiber optic voltage and current sensor.
Holographic data systems, Memories and read out optical data processing fundamentals.
Reference books:
1. Optoelectronics and Introduction- Wilson and Hawkas, PHI.
2. Optical fibre communication- Senior, PHI.
3. Optical fibre sensors- Culshame and Dakim.
4. Semiconductor Optoelectronics- P. Bhattacherjee, PHI.
5. Optoelectronics and Fibre optic communication- Sarkar&Sarkar
PROJECT-I (IN73)
sessional :100 Viva:50
Course Outcomes: Upon successful completion of the course, students should be able to:
CO1 Survey research literature of relevant fields of engineering.
CO2 Design solutions for selected project problem.
CO3 Show leadership quality during the execution of the project.
CO4 Develop communication skills and team work.
CO5 Apply engineering knowledge for sustainable development of the society.
CO-PO MAPPING:
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 2 3
CO
2 3 3 3 3 3
CO
3 3 2 2
CO
4 3
CO
5 3 3
7th SEMESTER B.E (ELECT. & INST.)
THEORY: 100
SESSIONAL:50
SYLLABUS FOR (ELECTIVE-I)
BIOMEDICAL INSTRUMENTATION(IN72)
L-3 T-1 P-0
Course Objective:
To provide basic concepts of biomedical instrumentation.
Course Outcomes: On Completion of this course the students should be able to
Os Course Outcomes Level
CO1 Explain the role of biopotential electrodes. L2
CO2 Outline different Cardiovascular measurement techniques. L2
CO3 Outline different electroencephalography and Electromyography
instrumentation.
L2
CO4 Illustrate different respiratory system measurement. L2
CO5 Analyse different clinical instruments. L2
CO6 Explain different medical imaging and diagnosis techniques. L2
Mapping of Course outcome and Programme outcome and Programme Specific Outcome:
1. INTRODUCTION : Introduction to the physiology of cardiac, nervous , mascular &
respiratory systems.
2. TRANSDUCERS & ELECTRODES : Different types of transducers and their
selections for biomedical applications ; Electrode theory ; Different types of
electrodes – Hydrogen , Colomel, Ag-Agcl , pH , PO2 , PCO2 electrodes ; Selection of
electrodes.
3. CARDIOVASCULAR MEASUREMENT : The heart and other cardiovascular
systems ; Measurement of blood pressure ; Blood flow cardiac output and cardiac rate
Course
Outcome
Programme Outcome PS01 PS02
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12
CO1 3 - 1 - - 2 - 2 - - - 1
1
CO2 3 - 1 - - 2 - 2 - - - 1
CO3 3 - 1 - - 2 - 2 - - - 1
CO4 3 - 1 - - 2 - 2 - - - 1
CO5 3 - 1 - - 2 - 2 - - - 1
CO6 3 - 1 - - 2 - 2 - - - 1
; Electrocardiography ; Phonocardiography ; Ballistocardiography ; Plethysmography
; Magneto-cardiography ; Cardiac pacemaker ; Computer applications.
4. MEASUREMENT OF ELECTRICAL ACTIVITIES IN MUSCLES & BRAIN:
Electromyography ; Electroencephalograph & their interpretation ; Respiratory system
measurement ; Respiratory mechanism ; Measurement of gas volume & Flow rate ;
Carbon dioxide & Oxygen concentration in inhaled air ; Respiratory controller.
5. INSTRUMENTATION FOR CLINICAL LABORATORY : Measurement of pH
values of blood ; ESR measurement ; Haemoglobin measurement ; Measurement of
oxygen & carbon dioxide concentration in blood ; GSR measurement ; Polarographic
measurements ; Computer applications.
6. MEDICAL IMAGING : Ultra sound imaging ; Radiography & applications .
7. BIOTELEMETRY : Transmission & reception aspects of biological signals via long
distance ; Aspect of patient care monitoring.
Reference Books :
1. Webster JS – Medical Instrumentation Applications & Design
2. Cromwell L – Biomedical Instrumentation (PHI)
3. Khandpur RS – Hand Book of Biomedical Instrumentation (TMH)
4. Astor BR – Introduction to Biomedical Instrumentation & Measurement (Mc Millan )
SYLLABUS FOR (ELECTIVE-I)
THEORY:100
SESSIONAL:50
DIGITAL IMAGE PROCESSING(CS726)
1) Introduction: Digital image representation, fundamental steps in image processing,
elements of image processing systems, geometry of image formation, image acqusition, color image sensing, stereo imaging, range sensing, tesselation,
sampling and
quantization.
2) Image tranforms: Fourier, Walsh, Hadamard, Discrete Cosine, Hotelling, Discrete Wavelet Transforms and their properties.
3) Image enhancement and restoration: Spatial and frequency domain enhancement
Techniques (Histogram based techniques, smoothing, filtering, sharpening, Homomorphic filtering), Unconstrained and Constrained Restoration, Inverse
filtering, Wiener filter.
4) Image compression: Coding, Interpixel and Psychovisual Redundancy; Image
compression models; Error free compression – Huffman, Arithmetic and LZW,
Bit-Plane coding ( Constant Area coding, 1-D & 2-D Run length coding ),
Lossless predictive coding; Lossy compression – Lossy predictive coding ( Delta
modulation, Optimal predictors – Differential Pulse Code Modulation), Transform
coding – ( Discrete Fourier Transform, Walsh-Hadamard Transform, Discrete
Cosine Transform, and Discrete Wavelet Transform methods ), Sub-image size
selection, Bit Allocation, Zonal & Threshold coding, Image compression
standards – CCITT Group 3 & 4 Binary Image 1-D & 2-D Compression
standards, JPEG using DCT & DWT Continuous Tone Still Image Compression
standard, Basics of MPEG Video Compression standard.
5) Digital geometry and its application in image processing:
Neighbourhood, connectedness, path, holes and surroundness, Borders,
distances, Medial axis transformation, shrinking and expanding, thinning,
Morphological operations- Erosion, Dilation, Opening, Closing, Parallel
implementation, Smoothing, Component labelling, Thinning.
Image segmentation: Edge detection – Roberts, Prewitt, Sobel & Laplacian
Operators, Edge linking and Boundary Detection – Local Processing, Global
Processing via the Hough Transform to detect straight lines and parameterised
curves, Global Processing via Graph-Theoretic Techniques; Pixel Classification
via Grey Level Thresholding – Optimal Global and Adaptive Thresholding,
Multispectral Thresholding; Region based segmentation- Region growing, Region
splitting & merging; Segmentation by Morphological Watersheds; Use of motion
in segmentation; Frequency domain techniques.
6) Representation and Description: Representation – Chain codes, Polygonal
Approximations, Signatures, Boundary Segments, Skeletons; Boundary
Descriptors – length, diameter, major axis, minor axis, basic rectangle,
eccentricity, curvature, shape numbers; Fourier Descriptors; Statistical Moments;
Regional Descriptors – area, perimeter, compactness, etc.; Topological
Descriptors- number of holes, connected component, Euler number, Euler
formula; Texture – statistical, structural and spectral description; Moments of Two
dimensional functions; Use of Principal Components for Description; Relational
Descriptors.
Reference Books:
1) Digital Image Processing- R C Gonzales and R E Woods.
2) Fundamental Of Digital Image Procassing- Anil K Jain,PHI.
3) Computer Vision- D H Ballard and C M Brown.PHI.
SYLLABUS FOR (ELECTIVE-I)
ELECTRONIC INSTRUMENTATION(IN74)
THEORY: 100
SESSIONAL:50
Instrumentation amplifiers and their applications; Active filter & their
design consideration ; Transducer oscillators; Function generators; Regulated
power supply; DAC & ADC – different types ,quantization error, resolution &
accuracy of DAC & ADC ; DAC & ADC chips; Multiplexing & demultiplexing;
PLL & V-F converters; Lock-in amplifier & its applications; Automated
voltmeter; Digital frequency meter; R.M.S detector, Digital multimeter; Wave &
spectrum analyser; Harmonic distortion analyser; Hetrodyne frequency meter;
Recorders of different types.
Ref. Books:
1) Modern Electronic Instrumentation & Measurement Techniques-Helfric
A D & Cooper W.D (PHI)
2) Digital Measurement Techniques –Rathore T. S (Narosa)
3) Microelectronics: Digital & Analog Circuit & Systems –Millman (Mc
Grow Hill)
SYLLABUS FOR
(ELECTIVE-1)
ADVANCED COMMUNICATION(EE735)
Theory :100 Sessional :50
1) DIGITAL DATA TRANSMISSION:
Review of sampling & quantization, Timing & synchronization ,.Base band data
transmission & reception, Binary matched filter ,
ASK,FSK,PSK,QASK,QPSK,MSK. Error probability . Digital system design
consideration .
2) INFORMATION THEORY:-
Information content of a signal, Information rate, Shannon’s Capacity theorem,
Channel capacity, Shannon Limit , Coding , Entropy coding , Error detection &
correction coding, Parity check coding , Block code , Algebraic codes,
convolutional codes, ARQ, Optimum modulation system.
3) TELEPHONE SYSTEM:-
Telephone exchange , automatic strowger dialing , Hierarchy of switching offices
, Cross bar switch , switching matrices, Multiple Stage switching , TDM in
telephone, time slot interchanging , Space array for digital signals, combined
space & time switching , mobile phone, cellular phone , pager , global positioning
satellites, fax, videotext.
4) COMPUTER COMMUNICATION SYSTEMS:-
Design features of computer communication networks , LAN , packet radio &
satellite , TDMA, FDMA , ALOHA , CSMA, computer communication protocols,
the various layers.
5) Microwave SYSTEMS:
Rectangular and circular wave guide, wave guide coupling, Cavity resonators,
Directional couplers, Isolators, Circulators, Mixers, Detectors switches,
Microwave tubes- microwave triodes, Klystron, Magnetron, Travelling wave
tube, Cross field amplifier, Backward wave oscillators; Semiconductor
microwave devices- Passive microwave components, microwave transistors,
microwave IC’s, varactor diodes, step recovery diodes, Parametric amplifier,
Tunnel diode, Gunn effect diode, TRAPATT diodes, PIN diodes, Shottkey
barrier diode, Backward diode, MASERS & LASERS , Introduction to optical
communication.
5) RADAR SYSTEMS :
Introduction , Pulsed RADAR, MTI, RADAR beacons, CW doppler
RADAR, FM RADAR, Phased array RADAR, Planar array RADAR.
6) TELEVISION FUNDAMENTALS:
TV systems and standards , B/W TV transmission and reception, Colour TV.
Ref. Books:
1) Principles of Communication Systems- Taub & Schilling
2) Analog and Digital Communication Systems – Martin S Roden
3) Electronic Communication Systems- George Kennedy
4) Principle of RADAR – Meril Skolnik.
Semester-VIII
Sl.
No
SAR
Code
Course
Code
Course Title Theory Sessional Viva
1 C407 EE-81 Automatic Control Systems 100 50 -
2 C408 IN-81 Process Modelling andControl 100 50 -
3 C409 IN-82 Digital Signal Processing 100 50 -
4 C410 IN-83 Elective-II 100 50 -
5 C411 IN-84 Project-II - 150 50
6 C412 IN-85 General Viva-Voce - - 100
Elective-II:
6. Data Communication & Networks (EE-84)
7. Robotics and Applications (ME-89)
8. Environmental Monitoring & Control (IN-83)
9. Computer Control Systems (EE-86)
10. Non-destructive Testing (IN-85)
AUTOMATIC CONTROL SYSTEMS(EE81)
Theory:100 Sessional : 50
L-3 T-3 P-3
CO1: Analyze characteristics of physical systems with mathematical model.
CO2: Analyze different systems using time and frequency domain techniques.
CO3:Illustrate the design of control system using both time and frequency domain
techniques.
CO4: Show the state space modelling of different systems.
CO P
O1
P
O2
P
O3
P
O4
P
O5
P
O6
P
O7
P
O8
P
O9
PO
10
PO
11
PO
12
PS
O1
PS
O2
CO1 3 3 3 3
CO2 3 3 2 3
CO3 3 2 2 2 3
CO4 3 2 2 3
AVERA
GE 3 2.5 2 2 3 3
1) Introduction : Concept of automatic control systems; classifications- open loop
and closed loop systems, linear and non linear systems, continuous and discrete
time systems, SISO and MIMO systems, time-invariant and time varying
systems, servo systems and automatic regulating systems, adaptive control
systems.
2) Block diagram and signal flow graphs: Block diagram representation of physicalsystems,BDreductiontechniques;signalflowgraph(SFG):defination,terminoloy
,SFG representation of physical systems, Mason’s Gain formula, BD reduction using
SFG techniques.
3) Mathematical modelling of physical systems: Differential equations and
transfer function form of model, mathematical model of electrical, mechanical and electro mechanical systems, analogous systems,
4) Transient response analysis: Type and order of systems, standard test signal, steady state error and error constants, generalized error series, sensitivity, characteristic equation, transient response of 1st,2nd and higher order systems, transient response specifications, definition of absolute and relative stability, Routh-Hurwitz stability criterion.
5) Root locus method: Introduction, angle and magnitude conditions, construction of complete root locus, stability analysis, effect of addition of poles and zeroes.
6) Frequency response analysis: Frequency response of systems, frequency domain specifications, correlation between time domain and frequency domain specification, Polar plot, Nyquist plot and Nyquist stability criterion, construction of Bode plot, Gain margin &Phase margin, minimum and non minimum phase transfer function, determination of transfer function from Bode plot, magnitude vs phase angle plot, constant-M& constant-N circles, Nichol’s chart.
7) Designandcompensationtechniques:Preliminarydesignconsiderations,lead,lag,& lag-lead compensation techniques based on Root locus and Bode plot method.
8) State space method of system analysis: Concept of state and state variables, state model, state-space representation of physical systems, BD representation, state transition matrix and its properties, relation between state equation and transfer function, solution of state equation, characteristic equation, eigen values & eigen vectors, concept of controllability and observability of linear systems, Liapunov stability analysis of time invariant systems.
9) Control system components: Potentiometer, Synchros, DC and AC servomotors, rotating amplifier, stepper motor, tachogenerators.
Ref.Books:
1) Ogata K-Modern Control Engg(PHI).
2) Nagrath I J&Gopal M-Control System Engg.
3) Kuo B C-Automatic Control Systems(PHI).
4) Distefano-Feedback and Control Systems(Schaum Series).
5) Sukla R C –Control Systems(Dhanpat Rai&Sons).
6) M.Gopal – Control Systems –Principles & Design (TMH)
8th SEMESTER B.E (INSTRUMENTATION)
PROCESS MODELLING AND CONTROL(IN81)
Theory: 100 Sessional:50
L-3 T-3 P-3
Course Objective:
To provide basic concepts of process control used in industries.
Course Outcomes: On Completion of this course the students should be able to
COs Course Outcomes Level
CO1 Develop Mathematical modelling of various physical systems. L3
CO2 Apply control actions e.g. P, PI, PD and PID in process control. L3
CO3 Illustrate different controller tuning methods. L2
CO4 Apply multi loop control systems , PLC and DCS in process automation L3
CO5 Explain different types of control valves for various industrial applications. L2
Mapping of Course outcome and Programme outcome and Programme Specific Outcome:
1) Introduction : Definition of process & process control systems; Objectives & requirements;
Classification & selection of process variables; Sources &nature of disturbances; hardware
elements of process control systems.
2) Modelling of physical systems: Mathematical model of physical systems-liquid level
system, thermal system, mixing process, CSTR, pressure system, flow system etc; interacting
and non interacting systems, RLC elements in process, linerization of non linear systems.
3) Transient response analysis: Response of first and second systems due to load change at
arbitrary points with P,I,P-I and P-I-D controllers; transient response specifications, effect of
time delay and measurement lag on system response.
4) Controllability and stability: Concept of controllability, DRF &SR, stability analysis using
Routh’s criteria, Root locus, Bode plot, GM &PM, system controllability using Bode plot.
5) Control action and controllers: On-Off,P,I,D,PI,PD and PID control actions; pneumatic,
hydraulic and electronic controllers; programmable controller.
6) Design of feed back controllers: Selection criterion for type of controllers, controller
tuning-process reaction curve, Zeigler-Nichol’s method, Cohen and Coon method and
frequency domain method.
Course
Outcome
Programme Outcome PS01 PS02
PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8 PO9 PO10 PO11 PO12
CO1 3 2 - - - - - - - - - - 3 3
CO2 3 - 2 - - - - - - - - 3 - -
CO3 3 - - - - - - - - - - 3 - -
CO4 - 2 3 - - - - - - - - 3 - -
CO5 2 - - - - - - - - - - - - -
7) Multi loop control systems: Cascade control, override control, split-range control, feed-
forward control and ratio control systems.
8) Control valve: Construction and working principle, valve sizing, valve plug, valve
characteristics, selection of control valve, valve positioners.
9) Computer control of processes: Control computer-Basic functions and specifications,
hardware elements, data acquisition and control, direct digital control, supervisory control,
distributed control systems.
Ref. Books:
1) Stephinopoulos G- Chemical process control (PHI).
2) Pollard A –Process control.
3) Coughanowr – Process System Analysis and Control (MH).
4) Hariot P-Process Control (TMH).
5) Johnson-Process Control Instrumentation Technology (JW).
8th SEMESTER B.E ( INST. )
THEORY: 100 SESSIONAL:50
SYLLABUS FOR
DIGITAL SIGNAL PROCESSING(IN82)
L-3 T-1 P-0
CO P
O1
P
O2
P
O3
P
O4
P
O5
P
O6
P
O7
P
O8
P
O9
PO
10
PO
11
PO
12
PS
O1
PS
O2
CO1 3 2 1 1 1 2 2
CO2 3 2 1 1 1
CO3 3 2 1 1 1
CO4 3 2 1 1 1
AVERA
GE 3 2 1 1 1 2 2
8. Introduction : Introduction to signals, systems & signal processing ; Classification of signals ; Concept of frequency in continuous-time and
discrete-time signals ; Analog to digital and digital to analog converters from
signal processing view point ; Linear time-invariant systems.
9. Z-Transforms : Definitions & properties ; Inverse Z-transforms ; Transfer
functions ; Unit sample response ; Difference equations ; Basic network structure for IIR & FIR systems.
10. Discrete Fourier Transform (DFT) : Fourier transform of discrete-time
signals ; Fourier series representation of discrete-time signal ; Sampling theorem ; Discrete Fourier transform and its properties ; Filtering of long data
sequences.
11. Coputational Methods of DFT : Fast Fourier Transform (FFT) ; Decimation
in time and decimation in frequency radix-2 FFT algorithms ; In-place computations and bit-reversing rules ; Parallel & pipeline processing of FFT
radix-2 algorithms ; Efficient computation of the DFT of two real sequences ;
Efficient computation of DFT of the DFT of a 2N-point real sequence.
12. FIR Digital Filters : Properties , window, frequency sampling and computer aided design of filter design.
13. IIR Digital Filters : Properties, impulse invariance and bilinear and matched Z-transform methods og filter design.
14. Linear Prediction and Optimum Linear Filters : Representation of
stationary random process ; Relation power spectra ; Relationship between the
filter parameters and the Auto correlation sequence ; Forward and backward
linear prediction ; Solution of normal equations by Levinson Durbin algorithm
; Properties of Linear prediction – error filter ; AR lattice & ARMA lattice-
ladder filters ; FIR & IIR Wiener filters ; Orthogonality principle in linear
mean-square estimation ; Non-casual Wiener filter.
REFERENCES :
4. Digital Signal Processing-Principles, Algorithms & Applications
– John G. Manolakis ( PHI )
5. Digital Signal Processing – Alan V. Oppenheim & Ronald W. Schafer (PHI)
6. Theory and Applications of Digital Signal Processing
– Lawrence R. Rabiner & Bernard Gold ( PHI )
PROJECT-II (IN84)
sessional :150 Viva:50
Course Outcomes: Upon successful completion of the course, students should be able to:
CO1 Survey research literature of relevant fields of engineering.
CO2 Design solutions for selected project problem.
CO3 Show leadership quality during the execution of the project.
CO4 Develop communication skills and team work.
CO5 Apply engineering knowledge for sustainable development of the society.
CO-PO MAPPING:
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2 2 3
CO
2 3 3 3 3 3
CO
3 3 2 2
CO
4 3
CO
5 3 3
General Viva Voce (IN85)
Viva:100
Course Outcomes: Upon successful completion of the course, students should be able to:
CO1 Explain the basic concepts of topics studied in Instrumentation
Engineering Programme.
CO2 Show overall technical knowledge and industry readiness.
CO3 Develop interpersonal skills and presentation skills.
CO4 Demonstrate professional ethics.
CO PO
1
PO
2
PO
3
PO
4
PO
5
PO
6
PO
7
PO
8
PO
9
PO1
0
PO1
1
PO1
2
PSO
1
PSO
2
CO
1 3 2
1 2 3
CO
2 3 2 2 1
CO
3 3 2
CO
4 3 2
SYLLABUS FOR (ELECTIVE-II)
ENVIRONMENTAL MONITORING AND CONTROL(IN83)
THEORY: 100
SESSIONAL: 50
Course Objective:
To provide sound knowledge about various causes and monitoring methods of air and water
pollution.
Course Outcomes: On Completion of this course the students should be able to
COs Course Outcomes Level
CO1 Explain the working principles of different environmental
pollution detecting and monitoring methods.
1
CO2 Compare different water pollution monitoring instruments. 1
CO3 Summarize the sources of noise and its effect on human being. 2
CO4 Explainthe sources, types and monitoring methods of industrial
pollution.
2
Mapping of Course outcome and Programme outcome and Programme Specific Outcome:
Course
Outcome
Programme Outcome PS01 PS02
1 2 3 4 5 6 7 8 9 10 11 12
CO1 2 2 1 3 1
CO2 2 1 1 3
CO3 2 1 1 3
CO4 2 1 1 3
1. Air Pollution Monitor: Environment pollution monitoring classification- Air pollution &
their effect on human beings and environment- methods of detecting & monitoring using
conductometry, coulometry, electrochemical cell method; piezo electric oscillation
method; paper tape method; optical laser method; Air pollution monitoring instruments;
Laser instruments for monitoring environment.
2. Water Pollution Monitoring: Water pollution & their effect on environment-Health
hazards; Basic technique of detection, monitoring ;spectrometric method –Emission
spectrography, atomic absorption spectrophotometry, absorption photometry; marine
pollution monitoring; polarography; chromatographic method; Water pollution
monitoring instruments.
3. Noise Pollution & Measurement: The effect of noise on human beings and environment;
various sources of noise; Methods to reduce the noise; Method of measurement.
4. Solid Pollution & Measurement: Industrial solid pollution pesticides- their effect on
agricultural product; methods for reduction ; methods of measurement; Industrial
pollution & their monitoring; Industrial pollutant; Industrial wastes; Health hazards; -
monitoring, incineration ,ecological balance; Pollution abatement in core sector
industries.
Ref.Books:
1. Air Pollution (Vol-3) –Arthur C Stern (Ed), Academic Press.
2. Pollution Control in Process Industries – Mahajan S P (TMH)
3. Environmental Engg. Handbook (Vol-1,2 &3) , Chilton– Liptak B G (Ed)
8TH SEMESTER B.E (ELECT. & INST.)
THEORY: 100
SESSIONAL:50
SYLLABUS FOR (ELECTIVE –II)
COMPUTER CONTROL SYSTEMS(EE86)
L-3 T-1 P-0
Introduction to Computer Control Theory; Sampling of continuous time
signals; Sampling mechanism and Sampling theorems; Reconstruction of sampling
waves; Choice of sampling period; Computer oriented mathematical models-
Difference Equations,Z-transform, Pulse transfer function, inverse Z-transform,
Sampling of Continuous time state-space model; Response of linear discrete time
systems; Analysis of simple feed back systems; Stability analysis; Design and
compensation Techniques of discrete time systems.
Ref. Books:
1) Digital Control Engineering- Modon Gopal.(WI)
2) Digital Control System – B.C Kuo.
3) Computer Control Systems- K.J Astrom & B. Wittenmark (PHI)
4) Digital and Sampled Data Control Systems – J.T Tou.
8TH SEMESTER B.E ( INST.)
THEORY: 100 SESSIONAL:50
SYLLABUS FOR (ELECTIVE –II)
NON-DESTRUCTIVE TESTING(IN85)
L-3 T-1 P-0
Introduction and importance of NDT; General principle and basic elements of NDT; Liquid penitrant method ;Optical method (Laser Holography) ; Thermography ; Ultrasonic testing method ; Radiological methods- X-ray, Gamma ray , Tomography.
Ref. Books:
1) Non-destructive Testing Handbook – American Society for NDT, 1989.
2) Non-Destructive Testing – Hull .B & John . V (ELBS / Mc-Millan)
Recommended