TE
(Electronics & Telecommunication Engineering) Semester -V
1.
Microcontrollers
Teaching
Scheme : Examination Scheme:
Lectures:
4 Hrs/Week Paper: 100 Marks
Practical:
2Hrs/week TW: 25 Marks
POE:
50 Marks
Section –I
Chapter 1:
Introduction to MCS 51 (08)
Introduction
to MCS 51 Family, Architecture, Functional Pin out diagram, Programming
Model,
Memory Organization, Addressing Modes, Instruction Set: Classification, Reset
Circuit,
Machine Cycle, Oscillator Circuit, Introduction to Assembly Language
Programming.
Chapter 2:
Hardware overview: (06)
Input/Output
Ports, Counters & Timers, Serial Communication, Interrupt.
Note: Structure of Above, Related S.F.R, Instruction, Associated
Programs.
Chapter 3:
Interfacing & Application (06)
Interfacing:
RAM, ROM, LCD, ADC, DAC, Key board. Minimum System Design &
Application:
Interfacing of Temperature Sensor (LM 35) 8051 Connection to RS 232.
Note: Assembly Language Programming to be done using Keil or
Pinnacle Simulator
Section-II
Chapter 4:
Introduction to PIC family (08)
CPU
Architecture: Harvard architecture & pipelining, program memory
considerations
Register
file structure, Instruction set, addressing modes: Immediate, Direct, Indirect
CPU
Registers:
Status, W, FSR. INDF, PCLATH, PCL, Programming of above
Chapter 5:
Hardware Overview: (06)
a.
I/O ports &TRIS registers.
b.
External Interrupts, Timers, CCP Module: Programmable period scalar, Event
Counter,
Sleep
Mode, PWM mode
c.
ADC: Features, ADC use.
[Note: Structure related to above, SFR’s Simple programs]
Chapter 6:
Special features: (06)
Configuration
word, Oscillator configuration, Reset alternatives, low power operation,
concept
if I2 C
& associated Hardware
[Note: Syllabus need to be covered with reference to PIC 16FX]
Note: Programming of PIC to be done using MPLAB or similar
software.
Text Books:
1.
The 8051 Microcontroller By Ayala 3rd
Edition
2.
The 8051 Microcontroller & Embedded Systems
By
Muhammad Ali Mazidi & Janice Gillispie Mazidi Pearson Edition L.P.E.
3.
Design with PIC Microcontroller by John B. Peatman, Person Education.
4.
Microchip PIC 16FX family microcontroller data sheet
Reference Books:
1.
Architecture Programming, Interfacing & System design
By
Rajkamal Pearson edition.
2.
The 8051 Microcontroller & Embedded Systems
By
Muhammad Ali Mazidi & Janice Gillispie Mazidi Pearson Second Edition
3.
Programming the PIC microcontroller with MBASIC By Jack R. Smith
Term Work:
Minimum
10 experiments should be conducted
5
experiments on MCS 51 family Microcontroller & 5 experiments on Microchip
PIC
Microcontroller
should be performed. Minimum 50% experiments to be performed on
microcontroller
kits.
TE
(Electronics & Telecommunication Engineering) Semester -V
2. Signals &
Systems
Teaching
Scheme : Examination Scheme:
Lecturers
: 3 hr/week: Theory : 100 Marks
Tutorial
: 1hr/week Term Work: 25 Marks
Section-I
Unit-I:
Introduction to Signals: (06)
Definition
of signals, classification of signals: continuous time signals & discrete
time signals,
even
& odd signals, periodic & non-periodic , deterministic &
non-deterministic, energy &
power,elementary
signals: unit impulse, unit step, unit ramp, exponential & sinusoidal ,
basic
operations
on signals.
Unit-II.
Linear time- invariant systems: (08)
The
representation of signals in term of impulses, discrete time LTI systems, the
convolution
sum,
continuous time-LTI systems, The convolution integral, properties of linear
time invariant
systems,
Systems described by differential, difference equations, block diagram
representation
of
LTI systems described by differential difference equations, Singularity
functions.
Unit-III:
Z transform: (08)
Introduction
of Z-transform, ROC, properties of ROC, Unilateral Z-transform, properties of Z
transform:linearity,
time shifting, time reversal, time scaling, convolution, differentiation,
multiplication,
Parsevals theorem, initial value & final value theorem. Inverse
Z-transform: PFE
method,
long division method, residue method, convolution method. Transfer
function(Poles &
Zeros),
stability and causality. Representation of system via difference equation and
solution of
it.
Section-II
Unit-IV:
Fourier Series for Continuous Time & Discrete Time: (08)
Continuous
time & discrete time Fourier series: development Fourier of Series,
derivation,properties
of Fourier series: linearity, time shifting, frequency shifting, time reversal,
time
scaling,time differentiation & time integration, multiplication , convolution.
Unit-V:
Continuous Time & Discrete Time Fourier Transform: (08)
Basic
concept of Fourier transform of functions: rectangular, impulse, signum.
Properties of
Fourier
transform: linearity, time shifting, frequency scaling, time scaling,
multiplication, and
convolution.
Unit-VI:.
Sampling: (04)
Representation
of continuous time signals by its samples, The sampling theorem, Reconstruction
of
signals from its samples using interpolation, The effect of under sampling,
aliasing, Discrete
time
processing of continuous time signals, Sampling in the frequency domain.
Text
Books:
1.
Simon Haykin, Barry Van Veen- ‘Signals & system’ - IInd Edition Wiley
publication
2.
Michael J. Roberts.-‘Fundamentals of signals & systems’- Tata McGraw Hill,
2007.
Reference
Book:
1.
Alan V. Oppenheim, Alan S. Wilsky, S. Hamid Nawab -‘Signals & system’ -IInd
Edition -
Pearson
Education.
2.
H.A HSU, ‘Signals & system’ (Schaum’s out lines), Tata McGraw Hill
3.
Smarajit Ghosh, ‘Signals & system’ Pearson Education.
4.
Charles L. Philips, John M. Parr, Eve A. Rislein ‘Signals, system &
transform’ , IIIrd Edition,
Pearson
Education.
5.
Ramesh Babu ‘Signals & system’ , SciTech Publication.
6.
Benoit Boulet ‘Fundamentals of signals & System’ Thomsan Learning
Term
work:
Term
work shall consist of minimum 12 assignments, out of which minimum 05 problems
to be
solved
on graph paper.
TE
(Electronics & Telecommunication Engineering)
Semester
-V
3. Antenna And
Wave Propogation
Teaching
Scheme : Examination Scheme:
Lectures:
4 Hrs/Week Paper: 100 Marks
Practical:
2Hrs/week TW: 25 Marks
POE:
50 Marks
Section I
UNIT 1:
INTRODUCTION TO ANTENNA (06)
Basic
antenna parameters, pattern, beam area, radiation inversity, beam efficiency,
directivity ,
gain
and resolution, antenna aperture, effective height the radio communication
link, field from
oscillating
dipole, antenna field zone, shape-impendance consideration, linear elliptical
polarization
poynting vector for elliptically and circularly polarized waves, The
polarization
ellipse
& the poincare sphere, loops, dipoles and slots, opened-out coaxial line
antennas,
opened-out-2conductor
antennas, opened out waveguide antennas, flat-sheet reflector antennas,
parabolic
dish and dielectric lens antennas, end fire antennas, Broad bandwidth antennas,
the
patch
antennas.
UNIT 2: ANTENNA
ARRAYS: (05)
Array
of two isotropic point sources, nonisotropic but similar point source and the
principle of
pattern
multiplication, examples of pattern synthesis by pattern multiplication,
nonisotropic and
dissimilar
point sources, linear array of n isotropic point source of equal amplitude and
spacing,
null
directions for array of n isotropics point sources of equal amplitude and
spacing effect .
UNIT 3:
BROADBAND & FREQUENCY INDEPENDENT ANTENNA : (05)
Broadband
basics, infinite and finite biconical antennas, directional biconicals,
conicals, disk
cones
and bow ties, the frequency-independent concept: rumesay’s principle, the
Illinois story,
the
frequency independent planner log-spiral antenna, frequency independent
conical-spiral
antenna,
the log periodic antenna, the composite yagi-uda corner-log-periodic array.
UNIT 4: ANTENNA
FOR SPECIFIC APPLICATIONS (05)
Electrically
small antenna, physically small antennas, antenna siting and the effect of
typical(Imperfect)
ground, ground plane antennas, sleeve antennas, turnstile antennas,
superturnstile
antennas, other omnidirectional antennas, circularly polarized antennas, the
high
gain
omni, submerged antennas, surface wave and leaky wave antennas, antenna design
consideration
for satellite communication, receiving versus transmitting considerations,
bandwidth
considerations, architecturally acceptable antennas, ILS(Instrument Landing
System),
The LEO satellite link antenna.
Section II
UNIT 5:
RADIATION (05)
Potential
functions and the electromagnetic field, potential functions for sinusoidal
oscillations,
the
alternating current element, power radiated by current element, application to
short
antennas,
assumed current distribution, radiation from a quarter wave monopole and the
half
wave
dipole, sine integral and cosine integral, electromagnetic field close to an
antenna,
solution
of the potential equations, far field approximation.
7
UNIT 6: GROUND
WAVE PROPOGATION (05)
Plane
earth reflection, space wave and the surface wave, the surface wave, elevated
dipole
antennas
above a plane earth, wave tilt of the surface wave, spherical earth
propagation,
tropospheric
wave.
UNIT 7:
IONOSPHERIC PROPOGATION (05)
The
ionosphere, effective permittivity and conductivity of an ionized gas,
reflection and
refraction
of the waves by the ionosphere, regular and irregular variations of ionosphere,
attenuation
factor, sky wave transmission calculations, effect of earth magnetic field.
wave
propagation
in ionosphere, Faraday rotation and measurement of total electron content,
other
ionospheric
phenomena.
UNIT 8: RADAR
SYSTEM (04)
Fundamentals,
RADAR performance factors, basic pulsed radar system, antennas and scanning,
display
methods, pulsed radar systems, moving target indication, radar beacons, CW
Doppler
radar,
frequency modulated CW radar, phase array radars, plannar array radars.
Text Book:
1)Antenna
for all Application- John D Kraus,third edition- TMH publication
2)Electronics
Communication System- Keneddy Davis- 4th edition TMH publication
3)
Electromagnetic Waves and Radiation Systems - Jordan and Balmain PHI publ.
Reference Books:
1)
Microwave Devices and circuits – Samuel Liao (Pearson)
2)
Networks, Lines and fields – John Rider ( PHI)
3)
Foundations of Antenna Theory and Techniques – Vincent F. Fusco (Pearson)
4)
Antennas and Wave Propagation – G. S. N. Raju ( Pearson)
Term Work:
Minimum
08 experiments should be conducted.
TE
(Electronics & Telecommunication Engineering) Semester -V
4. Linear
Integrated Circuits
Teaching
Scheme : Examination Scheme:
Lectures:
3 hours/ Week Theory:100marks
Practical:
2 hours/Week Termwork:25 Marks
POE
: 50 Marks
Section-I
Unit1:
Introduction to op-amp (08)
Introduction
to op-amp: definition, symbol, block diagram, ideal characteristics of Op-amp,
AC
&
DC analysis of dual input balanced output type differential amplifier.
Comparative study of
other
configurations of differential amplifiers, Analysis of typical op-amp,
equivalent circuit,
op-amp
parameters, equivalent circuit of op-amp, study of IC 741, CA3140
Unit 2: Op-amp
configurations & frequency response: (04)
Open
loop configuration, closed loop configurations, frequency Response, Stability
considerations,
Frequency Compensation, Slew Rate.
Unit 3:
Applications of Op-amp (08)
Summing,
Scaling & Averaging Amplifiers using Op-amps, Differential amplifier using
opamp,
Subtract
or Circuit, Instrumentation amplifier, V to I & I to V Converter, Precision
Rectifiers,
Log & Anti-log Amplifiers, Study of comparator, Schmitt Trigger, Window
Detector,
Clippers & Clampers, Peak Detectors, Sample & Hold Circuits.
Section-II
Unit 4: Active
Filters (08)
Introduction
of filters, Analysis & Design of following filters, First & Second
order High Pass
filter,
First & Second order Low Pass filter, Band Pass filter (Narrowband &
Wideband), Band
Reject
filter (Narrowband & Wideband), All Pass Filter, Sallen & Key Filter
Structure (First &
Second
order), Chebyshev Filter.
Unit 5: Waveform
Generators (08)
Analysis
& Design of Square wave generator, Triangular wave generator, Sawtooth wave
generator.
Analysis & Design of RC phase shift oscillator, RC wein bridge oscillator,
Colpitts
oscillator,
Hartley oscillator, Crystal oscillator, Multivibrator using op-amp.
IC
555 Timer, Block Diagram, Multivibrator using IC 555.
Unit 6: PLL (04)
Operating
Principles, VCO-IC 566, PLL IC 565, PLL IC 565 applications, IC 4046
Text Books:
1.
Op-amp & Linear Integrated Circuits by Ramakant Gaykwad. 4th ed. Pearson
Publications.
Reference Books:
1.
Microelectronic Circuits Analysis & Design by Rashid
2.
Linear Integrated Circuits Analysis , Design & Applications by Nair
3.
linear integrated circuits-GANESH BABU(SCITECH PUB)
4.
Op-amp & LIC-K.LAL KISHOR
Term Work: Minimum 08 experiments should be conducted.
TE
(Electronics & Telecommunication Engineering) Semester -V
5. Optical
Communication & Networks
Teaching
Scheme : Examination Scheme:
Lectures:
3 Hrs/Week Paper: 100 Marks
Practical:
2Hrs/week TW: 25 Marks
Section – I
Unit – I:
Overview of Optical Fiber Communication (3)
Basic
Network Information Rates, The evolution of Optic System, Elements of
Optical
Fiber Transmission Link, Simulation and Modeling tools.
Unit – II: Optical
Fibers: Structures, Waveguiding and Fabrication (6)
The
nature of Light, Basic Optical Laws and Definations, Optical Fiber Modes
and
Configurations, Mode theory for waveguides, Single Mode Fibers, Graded
Index
Fiber Structures, Fiber Materials, Fiber Fabrication, Mechanical
Properties
of Fibers, Fiber Optic cables.
Unit – III:
Signal Degradation in Optical Fibers (4)
Attenuation,
Signal Distortion in Optical Waveguides, Pulse Broadenning in
Graded-Index
Waveguides, Mode Coupling, Design Optimization of Single
Mode
Fibers.
Unit – IV:
Optical Sources (5)
Topics
from Semiconductor Physics, Light-Emitting Diodes (LEDs), Laser
Diodes,
Light Source Linearity, Modal, Partition and Reflection Noise,
Reliability
Considerations.
Section - II
Unit – V:
Photodetectors (4)
Physical
Principal of Photodiodes, Photodetector Noise, Detectors Response
Time,
Avalanche Multiplication Noise, Structure for InGaAs APDs,
Temperature
effect of Avalanche Gain, Comparision of Photodetectors
Unit – VI:
Optical Receiver Operation (4)
Fundamental
Receiver Operation, Digital Receiver Performance, Detailed
Performance
Calculations, Preamplifier Types, Analog Receivers.
Unit – VII: WDM
Concepts and Components (4)
Operational
Principles of WDM, Passive Components, Tunable Sources,
Tunable
Filters
Unit – VIII:
Optical Networks (6)
Basic
Networks, SONET/SDH, Broadcast-and –Select WDM Networks,
Wavelength
Routed Networks, Nonlinear Effects on Network Performance,
Performance
of WDM + EDFA Systems, Solitons, optical CDMA, Ultrahigh
capacity
Networks.
Note: Termwork shall consist of minimum 8 experiments based on
above topics.
Text Books : 1) Optical Fiber Communication – Gerd Keiser. Third Edition
( TMH )
Ref. Books: 1) Optical Communication – Senior
2)
Optical Fiber Communication – Agarwal ( Wiley)
3)
Optical Fiber Communication - Grover
4)
Optical Networks - Ramaswamy ( ELSEVIER INDIA )
TE
(Electronics & Telecommunication Engineering) Semester -V
6. Programming
Techniques (MATLAB)
Teaching
Scheme Examination Scheme
Lectures
: 2 hours/week
Practical
: 2 hour/week Term work : 25 marks
UNIT- I (05)
Matlab
basics variables, arrays , Multidimensional subarrays , Special values,
displaying
output
data, data files, scalar and array operations, Hierarchy of operations built-in
matlab
functions,
introduction to plotting, Debugging matlab programs.
UNIT- II (04)
Branching,
Statements and logical data type, Branches, write & for loop logical arrays
and
vectorization
UNIT- III (05)
User-defined&
i/o functions, introduction to matlab functions, Variable passing in matlab, 3
optional
arguments, Sharing data using global memory, Preserving data between calls to a
function,
function functions, subfunctions, Private functions, Nested functions . complex
data
, string functions , textread function, load and save commands, an introduction
to
matlab
file processing, file opening and closing , binary i/o functions, formatted i/o
functions,
comparing formatted and binary i/o function, file positioning and status
functions
UNIT- IV (03)
Handle
graphics & gui , the matlab graphics system, Object handles, examining and
changing
object properties, Using set to list possible property values, user-defined
data,
finding
objects, selecting objects with the mouse, creating and displaying a graphical
user
interface,
object properties, graphical user interface components, dialog boxes , menus..
UNIT- V (03)
Simulink
basics introduction, simulink, modeling, solvers, simulating model using
variables
from
matlab, data import/export , state space modeling & simulation, creation of
subsystems,&
Mass subsystem.
Text Books-
1)
MATLAB programming for engineers- IIIrd edition- Stephen J. Chapman-Cenage
Learning
2)
MATLAB & its application in engineering Rajkumar Bansal, Ashokkumar Good,
Manojkumar
Sharma- Person Education
3)
MATLAB & Introduction with application Amos Gilat-Wiley
Reference Books-
1)
Master in MATLAB-7 Duane Hanselman, Bruce Littlefiele- Person Education
2)
MATLAB programming manual by Mathworks Inc
3)
MATLAB & simulink Introduction to applications.- Partha S.Mallick-Scitech
publications.
List of MATLAB
programs
1)
Program using branching statement
2)
Program using looping statement
3)
Program for matrix manipulation
4)
Program using user defined function
5)
Program for handling complex data
6)
Program for File handling & string manipulation (Any two)
7)
Program for creating & Displaying GUI (Any two)
8)
Mini project based on any Engineering applications.( It should be completed
within
Two
or Three terms
TE
(Electronics & Telecommunication Engineering) Semester -VI
1. Digital
Signal Processing
Teaching
Scheme Examination Scheme
Lectures
: 4 hours/week Theory :100 marks
Practical
: 2 hour/week Term work :25 marks
POE
: 50 Marks
Section I
UNIT-I:The
Discrete Fourier Transform and FFT (08)
Introduction
to DSP system, DFT, Relation between DFT and Z Transform. Properties of
DFT,
Circular convolution, DFT. & IDFT
FFT
algorithms (DIT FFT & DIF FFT) implementation aspects, fast convolution
signal,
segmentation
(overlap save & overlap-add algorithm) correlation circular correlation,
IFFT,DFT
properties of circular correlation.
UNIT-II : FIR
Filter Design (06)
Characteristics
of FIR filter, properties of FIR filter, digital N/W for FIR filter, frequency
sampling
,Fourier series & windowing method, filter design using Kaiser window,
Realization
of FIR direct form structures cascade, parallel
UNIT-III : IIR
Filter Design. (06)
Impulse
invariant Tech. Bilinear transformation, Placement of poles & zeros,
frequency
band
transformation, analog filter approximation (Butterworth) quantization and
rounding
problems,
Effect of finite word length on stability and frequency response., Realization
of
IIR
direct form structures cascade, parallel
Section II
UNIT-IV:
Adaptive filters (04)
Introduction
to adaptive signal processing, Adaptive direct form FIR filters- LMS algorithm
UNIT-V: DCT
& wavelet Transform (10)
Forward
DCT, Inverse DCT, DCT as a orthogonal transformation.
Introduction
to wavelets, time frequency representations, continues time wavelet, Continues
wavelet
transform (CWT), Inverse CWT, Properties of CWT, Discrete wavelet transform,
STFT,
Comparison of Fourier transform & wavelet transform ,Application of
wavelets
transforms
.
UNIT-VI :
Application of Digital Signal Processing (06)
Voice
processing Analysis of speech signal, Speech analysis, Synthesis, System
compression
and coding channel vocoder, Sub band and coding
Image
processing, Biomedical signal processing - ECG
Text Books-
1.
Digital Signal Processing Principles, Algorithms and Application
By
John G Prokis, Manolakis, Pearson Education publication
2)
Digital Signal Processing Salivahanam, A Vallavaraj, C. Guanapriya, TMH
Ref. Books
1)
Digital Signal Processing P. Ramesh Babu, Scitech publication
2)
Digital Signal Processing Sanjeet Mitra, MGH
3)
Digital Signal Processing- E.C. Ifeachor, Barrie W. Jervis
4)
Digital Signal Processing- Ashok Ambardar, ( Cengage learning)
5)
Digital Signal Processing- Dr. S.D.Apte, Willey India
List of
Experiments.
Minimum
10 experiments
Experiments
may be performs using Matlab/DSP simulator
1.
Generation of DT signals
2.
Convolution and correlation of signals
3.
Computation of DFT & IDFT using standard formula
4.
Computation of DFT using FFT algorithms
5.
Computation of circular convolution
6.
Design of FIR LPF,HPF,BPF,BRF filter using Fourier series method
7.
Design of FIR LPF,HPF,BPF,BRF filter using frequency sampling method
8.
Design of FIR filter using Kaiser window
9.
Design of IIR LPF,HPF,BPF,BRF filter using impulse invariance method
10.
Design of FIR LPF,HPF,BPF,BRF filter using bilinear transformation method
11.
Design IIR filter using placement of poles & zeros.
12.
Computation of DCT
13.
Computation of wavelet transform
TE
(Electronics & Telecommunication Engineering) Semester -VI
2. Digital
Communication
Teaching
Scheme : Examination Scheme:
Lectures
– 3/week Theory – 100
Practical
– 2/week POE – 50
TW
– 25
Section – I
Unit – I: Random
Signal Theory: (06)
Probability,
Joint & conditional Probability, Probability mass function, statistical
averages,
continuous
random variables- PDF & Statistical averages, Random Processes, Time
average,
Ergodicity,
Power Spectral density of Stationary random processes.
Unit – II:
Information Theory: (06)
Entropy,
Information Rate, Shannon’s encoding theorem, communication channels- Discrete
&
Continuous, Rate of information transmission over a discrete channel, Shannon–Hartly
theorem,
implication of Shannon’s Theorem, Huffman’s coding & Shannon-Fanno Coding
techniques.
Unit – III:
Source Coding: (06)
Quantization
– Uniform, Non- Uniform, PCM, DPCM, ADPCM, Bandwidth Requirement,
SNR,
DM, ADM, CVSD.
Section – II
Unit – IV:
Digital Modulation Techniques and data formats: (06)
Unipolar,
Bipolar ,RZ , NRZ, Transmission modes
ASK,
FSK, PSK - coherent, Non- coherent, BPSK, DPSK, QAM. Comparision.
Unit – V:
Baseband Transmission: (05)
Baseband
pulse Shaping, Duobinary, M-ary Signalling, Pulse Shaping by digital methods,
eye
diagram, ISI, scrambler, Unscrambler.
Optimum
Receivers- Matched Filters, Correlation receivers, equalizers, Symbols &
frame
synchronization.
Unit –VI:
Channel Coding (07)
Types
of Erros & codes, linear block codes, error detection & correction,
Hamming codes,
Look-up
table decoding., Binary Cyclic codes, Encoding using (n-k) bit shift registers,
Syndrome
calculation. BCH, Burst codes, Convolution codes, Encoders, Decoders, Code
tree.
Books:
1)
K. Sam Shanmugam – Digital & Analog Communication ( John Wiley)
2)
Simon Haykin – Digital Communication (Wiley)
EXPERIMENT LIST
: (Minimum 10 Experiments)
1.
Study of PCM –TDM.
2.
Study of Compander.
3.
Study of DPCM.
4.
Study of ADPCM.
5.
Study of DM .
6.
Study of ADM.
7.
Study of CVSD.
8.
Study of ASK, FSK & PSK.
9.
Study of QPSK.
10.
Measurement of bit error rate.
11.
Study of Hamming Code.
12.
Study of generation of cyclic codes.
13.
Study of Eye Diagram using oscilloscope
14.
Study of any digital modulation scheme using Matlab communication tool
15.
Matlab practicals on random signals (Study of Continuous Random
Variable-
probability, variance)
TE
(Electronics & Telecommunication Engineering) Semester -VI
3. VLSI Design
Teaching
Scheme : Examination Scheme:
Lecture:-
3 hrs/ week . Theory- 100 marks
Practical
:- 2hrs/ week . TW - 25 marks
Section- I
Unit 1 :- Introduction
to VHDL (04)
Level
of abstraction. Need of HDL, VLSI Design flow, Features and capabilities of
VHDL,
Elements
of VHDL ( Entity Architecture , Library, Package, Configuration) , Identifiers,
literals,
data types,operators.
Unit 2 :- Combinational
logic design using VHDL ( 07)
Adder,
subtractor, decoder, encoder, tristate buffer, multiplexer, parity generator,
Parity
checker,
comparator, using Concurrent & Sequential statements, wait statement, VHDL
design
of encoder & decoder - for Huffman code, Shannon-fano code, Hamming code,
BCH
code,
Design for ALU.
Unit 3:- FSM
Design Using VHDL (07)
Impediments
to synchronous design, clock jitter, skew, gating the clock, asynchronous
inputs,
meta-stability and synchronizer failure, VHDL implementation of counter,
sequence
detector,
Design of content addressable memory CAB.
Section- II
Unit 4:- VHDL
Features (04)
Attributes
(type, signal, signal value, array, block), wait statement, Simulators,
Event
based simulator, Cycle based simulator, Flow chart for Event scheduling and
delays,
inertial
delay, Transport delay.
Unit 5:- Processor
Design (07)
Design
of General purpose processors- having instructions like LOAD, STORE, ADD,
SUB,
IN, JZ, JPOS, HALT. Design of Data path, design of control unit, test bench
using text
IO.
Unit 6:- PLD
Architectures and Testing (07)
Xillnx
9500 series CPLD (XC 9572), Spartan II FPGA (XCS 2 s30), Testing : Fault
models,
path
sensitizing random test design for testability, Built-in self test and Boundary
scan.
Referances
Books:-
1.
Fundamentals of Digital Logic with VHDL design , Tata – Mcgraw Hill- Stephen
Brown
and Zvonko Vranesic
2.
Principals of Digital System Design using VHDL, Cengage Learning -Roth John.
3.
Digital Systems Design with VHDL and Synthesis An Integrated Approach, Wiley-
India
Editio - K.C. Chang.
4.
Xilinx data manual “ The Programmable Logic data Book”
5.
VHDL a Design Oriented approach , Mcgraw-hill Compnies - S.S.Limaye.
6.
Digital logic and microprocessor design with VHDL - Thomson Publication- Enoch
O.
Hwang.
17
Practicals :
LAB Setup :
Model
Tech. Modelsim simulator and Xillinx Web pack, Xilinx ISE Simulator VLSI
universal
trainer
for FPGA and CPLD of Xilinx
Experiments :
Minimum
08 experiments based on following design . Each design must be tested through
VHDL
test bench.
Simulation, Synthesis,
and Implementations using FPGA and CPLD Trainers:
1.
Combinational logic : comparator, adder, barrel shifter, encoder & decoder
for
communication
codes.
2.
Sequential logic : Counters withsync./async. Reset signal, universal shift
registers,sequence
detector, arbiter, LFSR.
3.
Singal port RAM Dual port RAM, Singal port RAM , FIFO
4.
General purpose processor, ALU.
TE (Electronics & Telecommunication
Engineering) Semester -VI
4. Subject :
Industrial & Power Electronics.
Teaching
Scheme : Examination Scheme:
Lectures:
4 Hrs/week Theory: 100 marks.
Practicals:
2 Hrs/week TW : 25 marks
Section-I
1.
Semiconductor Power Devices : - (06)
Characteristics
of power diodes, power transistors, power MOSFET, IGBT, SCRs, TRIACs,
DIAC
and GTO. Rating of power devices, series and parallel connections of SCRs, SCR
protections-
dv/dt, di/dt, over voltage and over current protection.
2.
Firing circuits : - (04)
Turn
ON Methods- study of single phase firing circuits using UJT, PUT, Diac, Triac,
op amp.
Turn
OFF Methods - Forced commutation circuits -
Parallel Capacitance, resonant turn off,
external
pulse commutation, auxillary thyristors/IGBT/ MOSEFT and load commutation.
(Class
A to F)
3.
Applications of Thyristors : - (03)
Static
circuit breakers, over voltage protectors, zero voltage switch, integral cycle
triggering,
time
delay method, soft start method.
4.
Controlled Rectifier Circuits : - (07)
a)
Single Phase : - Half wave,
full wave, half controlled and full controlled converters with R &
RL
Load, effect of Freewheeling Diode. Calculations of performance parameters
expected.
b)
Three Phase: - Half wave,
full wave, fully controlled converters with Resistive Load only.
Section-II
5.
Inverters using MOSFET/IGBT’s: - (04)
Single
phase bridge inverters, principle and operation of three phase inverters,
Voltage control
techniques,
harmonic elimination methods -PWM Technique IGBT MOSFET based (Analytical
treatment
not expected )
6. AC
and DC Drives : - (04)
a) DC
Motor control- using
single phase bridge converters, dual converters and choppers
b)
3-phase AC motor control- speed
control of Induction Motor using Inverter, Study of
modern
3 – φ drives.
7.
Programmable Logic controllers (PLC’s) - Ladder diagram, (06)
Fundamentals,
symbol, PLC configurations, Block diagram, Fundamentals, PLC programming –
physical
components vs. program components, Discrete position sensors, Encoders,
transducers
and
advanced sensors, switches.
8.
Miscellaneous applications : - (06)
Non-drive
applications such as induction heating and Dielectric heating, Switched mode
power
supply
(SMPS), Uninterrupted power supply (UPS), Industrial Ultrasonic- generators,
detectors
and
applications. Introduction to SCADA.
Text
Books: -
1.
P.C.Sen : Power electronics ; TMH
2.
Chute and Chute : Electronics in industry ; MGH
3.
General Electric : SCR manual, PH
4.
Ned Mohan : Power electronics; John Willey Pub.
5.
John R.Hackworth,
Federick
D. Hackworth : Programmable Logic Controllers ; Pearson Education
Experiment
List: -
Minimum
8 experiments out of following-
1
- 2 experiments on Topic 1 & 2
2
- 3 experiments on Topic 4
2
- 3 experiments on Topic 5 & 6
3
- 4 experiments on Topic 3, 7 & 8
TE
(Electronics & Telecommunication Engineering) Semester -VI
5. Industrial
Management & Operation Research
Teaching
Scheme : Examination Scheme:
Lectures
:3 hours/week Theory :100 marks
Term
work :25 marks
Section - I
UNIT-I Function
of management (06)
Planning
Nature, Types, Improvement, Forecasting methods and importance, Organization
Importance
and Principles, Staffing Procedure of staffing, performance, appraisal methods.
Directing
Leadership styles, Motivation Theeries-Maslows, Herzbergs, Mc Greqors.
Communication
Process types, Barriers and Remedies. Controlling- process.
UNIT-II
Marketing (06)
Marketing
and selling concept, marketing mix, Advertising- needs, types, advantages and
limitations.
Material Management - Purchase and its importance, policies and procedure, Five
Rs
of purchasing. Inventory Control - Inventory costs, EOG analysis, ABC analysis.
UNIT-III Costing
(06)
Elements
of cost, cost estimation procedure, Entrepreneurship- importance, Qualities,
function
of
entrepreneur, small scale industries procedure of starting SSI unit, Difference
Schemes for
SSI.
Forms of Business Organization Single, partnership, Joint stock, co-operative
and state
and
central Govt. Social responsibilities and business ethics- introduction.
Section II
UNIT IV (06)
-Operations
Research Definition, methodology, Scope and limitations.
-Linear
programming Concept, Formulation of LPP, Graphical method, Simplex Method.
UNIT- V (06)
Assignment
Problems Introduction Balanced, Unbalanced, Prohibitive type of assignments,
Hungarian
methods
Transportation
Problems For finding basic feasible solution by Northwest corner method, Least
cost
method and Vogets Approximation method.
UNIT- VI (06)
-project
Management Programmed Evaluation and review technique, CPERTI, critical path
method
(CPM), Network Analysis, Identifying critical path, Probability of completing
the
project
within the given time.
Reference
Books:-
Industrial
management
1)
Management for Businesses and Industry C.S. George
2)
Industrial Organization Bethel Atwater, Smithy, Stackman and Riggs
3)
Essential of Management Koontz , Odonell
4)
Management Stoner
5)
Industrial Organization and management O.P. Khanna.
6)
Industrial and Business management Telsan.
7)
Principles of management- Tripathy and Reddy
8)
Industrial management Tata McGraw Hill
Operation
Research
1)
Qualitative Techniques Vol. I & II, L.C.Jhamb sharma and Banga.
2)
Operation Research W.L. Winston, Cengage Learning
3)
Problems in OR Hira and Gupta
4)
Operation Research H.A. Taha and A.M. Nafarajuan, Pearson Education
5)
Operation Research A. Ravindra and D.T. Phillipos , Wiley , India
6)
Introduction to Operation Research- Gillet Tata Mc graw Hill
7)
Quantitative Analysis N.d. Vara Tata Mcgraw Hill
8)
PERT and CPM (principles and Application )- L.S. Srinath
9)
Fundamentals of OR Ac Koff Sasieni.
TERM WORK:-
1)
Numerical on EOQ, ABC analysis.
2)
Numerical on Unit no. 4
3)
Numerical on Unit no. 5
4)
Numerical on Unit no. 6
5)
Case studies & Project proposal for SSI will be based upon following
guidelines
Students
are supposed to conduct survey of any small scale industry, submit report and
give
presentation
on the same.
a)
type of industry
b)
Location, area, vision, mission & quality policies of industry.
c)
Products.
d)
Production process, detailed flow diagram.
e)
Organization structure.
f)
Innovative systems in industry.
g)
Fulfillment of community needs.
h)
Pollution control techniques, care taken for control.
i)
Technical Requirement- Man power, Consultancy, Expertise available in
industry,
View of industry for enhancing industry institute interaction.
[NOTE: Numerical of above assignment must be solved using
Computer.]
22
TE
(Electronics & Telecommunication Engineering) Semester –VI
6. Electronic
System Design
Teaching
Scheme : Examination Scheme:
Lectures:
3 Hrs/Week Term Work: 25 Marks
Practical:
2 Hrs/Week OE : 50 Marks
1
DIGITAL VOLTMETER: (3)
Design
of 4-digit numeric display circuit, Design of 3 ½ digit DVM, Study of IC
7107/7106.
2 PHASE
LOCKED LOOP: (3)
Design
of digital phase locked loops (cd 4046 & 565), It’s use in frequency
synthesizer,
frequency
& phase demodulation, Amplitude modulation, Dual Tone Multi Frequency
Encoder
(DTMF).
3 AUDIO
& VIDEO AMPLIFIERS: (6)
Audio
amplifier: audio op-amp applications mike pre-amplifier with tone control,
study of LM
386
Video amplifier: Theory, voltage gain, cover code o/p voltage, wiring
precautions,
oscilloscope
counter pre-amplifier, NE 592, filter applications.
4
TIMERS: (6)
Fundamentals
of IC timers, CMOS timer & 2240 Binary Programmable Timer/counter, use of
timers
for event or interval timing, pulse generation & shaping, design of
frequency counter using
IC
74C926 for the time & event Counting.
5)
Sensor Signal Conditioning : (10)
for
sensors to get output in standard range
1)
Temperature – RTD, Thermocouple, Semiconductor LM 35, AD549 and 1N4148
2)
Strain gauge type transducers of 350 ohm/120 ohm bridge configuration
3)
Variable capacitor transducer signal conditioning using Voltage to Time and
Voltage to
Frequency
conversion.
4)
V to I and I to V converters for std input and output Standard input output
ranges – 0 to
2V
(DVM), 0 to 5 V(Micro controller), 4 to 20 mA (Industrial)
5)
Optical encoders
process
controllers using above transducers ON/OFF proportional PID controller
Algorithm
implementation only for any 8-bit Micro controller based process controllers.
6.
SWITCHED MODE POWER SUPPLY: (4)
Introduction
to SMPS, IC LM3524, Design of SMPS using LM 3521,Step up, Step down , Invert
mode.
7.
Micro Controller Based Design: (4)
Design
of process controllers PID
Standard
bus interface design.
Text Books.:-
1.
Industrial Control Electronics :- Mickel Jacob.Prentice Hall ( for ch,5)
(
Applications and Design)
2.
Intersil Data Manual –( for Ch 1 & 4 )
3.
Electronic System Design – B.S.Sonde ( Ch 1)
4.
Operation Amplifier & LIC – Ramakant Gaikwad ,Pearson (ch 2)
5.
Linear Data Manual – National ( Ch 6),
Ref. Books.
1.
Electronics Design – Goyal Khetan, Khanna Publications
Term work :
Term
work should consist of minimum 6 designs and one group of three students will
do the mini
project
on any one of the following list.
1.
Design of 3 ½ digit DVM using TTL Ics.
2.
Study of 7107/7106.
3.
Design of frequency synthesizer using 565 PLL.
4.
Design of frequency synthesizer using CD 4046 PLL.
5.
Frequency measurement using 74C926
6.
Interval measurement using 74c926.
7.
Study of proportional controller.
8.
Study of microcontroller based controller.
9.
Study of LM3524 SMPS.
10.
Study of audio & video amplifiers.
11.
Study of PID Controller
12.
Study & I to V & V to I converters.
Design
experiments should be conducted as
1)
Design of Hardware
2)
Simulation of the Circuits.
T.E (Electronics and Telecommunication
Engineering)
Semester - V
Replace Paper for Repeater Students
only.
ELECTONIC
COMMUNICATION ENGINEERING
Lectures 4 Hrs /Week Theory 100 Marks
Practical 2 Hrs/week TW 25 Marks
POE 50 Marks
Section-1
1) Frequency Modulation: ( 6 )
Overview of Frequency Modulation,
Frequency spectrum of FM, Frequency
deviation, modulation index, FM wave
equation, Bandwidth, power, phase
modulation, equivalence between phase
and frequency modulation, noise triangle,
pre-emphasis, de-emphasis, comparison
of noise in AM and FM.
2) FM modulated transmitters and
Receivers: (7 )
Carrier oscillators, frequency
changers, reactance modulators, Modulation of stereo
signal, power amplifiers. FM
receivers: FM detectors, RF amplifiers, noise in RF
amplifiers, IF amplifiers, mixers, FM
stereo receivers, FM receiver alignments.
3) Pulse modulation: (6 )
Sampling theorem, types of sample,
pulse amplitude modulation, pulse code
modulation, pulse position modulation,
Introduction to Synchronous and
Asynchronous TDM .
4) Facsimile transmission (3 )
Facsimile analog and digital
transmission and reception, MODEM, Document
scanning and printing.
Section –II
5) Data formats: (6)
Unipolar, Bipolar, RZ, NRZ,
Transmission modes, simplex, Half duplex, full
duplex, Asynchronous transmission.
Amplitude shift keying, Frequency shift
keying, Phase shift keying,
Differential phase shift keying.
6) Radar: (7 )
Basic principals, Rader performance,
factors, pulsed system, MIT, Radar beacons,
CW radar, Doppler radar, FM/CW radar,
phased array radar, planar array radar.
7) Spread spectrum modulation: (8 )
Introduction, direct sequence spread
spectrum, use of spread spectrum with code
division multiple access (CDMA).
Text Books:
1) Communication System, Analog and
Digital
R.P. Singh and S.D. Sapre (THM)
2) Electronic Telecommunication System
(4th Edition)
George Kennedy and Bernard Devise
(MGH)
Reference Books:
1. Introduction to Analog and Digital
Communication
Simon Haykin
2. Principle of Digital Communication
Das, Mullik, Chattergy
3. Digital Communication
Sirnon Haykin
4. Principles of communication
Taub & Schilling (MGH)
5. Digital Communication
Prokias (MGH)
Term work should consist of minimum 8
experiments based on above syllabus.
List of Practicals
1) Amplitude Modulation
2) Frequency Modulation
3) Pulse Amplitude Modulation
4) Pulse width Modulation
5) Pulse position Modulation
6) Pulse Amplitude Modulation - TDM
7) PCM-TDM
8) FSK (freq. Shift keying)
9) PSK (Phase Shift keying)
10) Study of data format
Shivaji
University, Kolhapur
Equivalences
of T.E. E&TC for repeater students
Semester-V
E&TC (old)
E&TC (new)
Transmission
Lines & Antennas Antennas & Wave Propagation (TE-I)
Signals &
Systems Signals & Systems (TE-I)
Electronic
Communication Engineering. Electronic Communication System
( Replace paper
for repeater students
only)
Industrial &
Information Management Industrial Management ( TE-II)
Microprocessor
& Peripherals Microprocessor & Peripherals ( SE-II)
Programming
Techniques-II Programming Techniques ( MATLAB)
(TE-I)
Semester-VI
E&TC (old)
E&TC (new)
Digital Signal
Processing Digital Signal Processing(TE-II)
Microwave
Engineering Digital Communication(TE-II)
Electronic
System Design VLSI Design (TE-II)
Optical
Communication Optical Communication &
Networks(TE-I)
Microcontrollers
Microcontrollers (TE-I)
Hardware Mini
Project Electronic System Design ( Mini Project)
(TE-II)
