THIAGARAJAR COLLEGE OF ENGINEERING: MADURAI – 625 015 ...
THIAGARAJAR COLLEGE OF ENGINEERING: MADURAI – 625 015 ...
THIAGARAJAR COLLEGE OF ENGINEERING: MADURAI – 625 015 ...
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S.No<br />
.<br />
<strong>THIAGARAJAR</strong> <strong>COLLEGE</strong> <strong>OF</strong> <strong>ENGINEERING</strong>: <strong>MADURAI</strong> <strong>–</strong> <strong>625</strong> <strong>015</strong>.<br />
(An Autonomous Institution, Affiliated to Anna University)<br />
BE (ELECTRONICS AND COMMUNICATION <strong>ENGINEERING</strong>)<br />
SCHEME <strong>OF</strong> EXAMINATIONS<br />
(For the students admitted in the academic year 2005-06)<br />
SECOND SEMESTER<br />
Sub.<br />
Code Name of the subject Duration<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
Theory<br />
1 D21 Mathematics <strong>–</strong> I 3 30 70 100 35 50<br />
2 D22 Electron Devices 3 30 70 100 35 50<br />
3 D23 Basic Circuit Theory 3 30 70 100 35 50<br />
4 D24 Applied Material Science 3 30 70 100 35 50<br />
5 D25 Applied Chemistry 3 30 70 100 35 50<br />
6. D26 Programming in C 3 30 70 100 35 50<br />
Practical<br />
7 D27 C Programming Lab 3 30 70 100 35 50<br />
8 D28 Electron Devices and Circuits 3 30 70 100 35 50<br />
9 D29<br />
Lab<br />
Workshop Practices 3 30 70 100 35 50<br />
THIRD SEMESTER<br />
S.No<br />
.<br />
Sub.<br />
Code Name of the subject Dura<br />
-tion<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
Theory<br />
1 D31 Mathematics <strong>–</strong>II 3 30 70 100 35 50<br />
2 D32 Analog Electronics 3 30 70 100 35 50<br />
3 D33 Linear Integrated Circuits 3 30 70 100 35 50<br />
4 D34 Network Analysis and<br />
3 30 70 100 35 50<br />
5 D35<br />
Synthesis<br />
Signals and Systems 3 30 70 100 35 50<br />
6. D36 Digital Circuits and Techniques 3 30 70 100 35 50<br />
7 D39 Professional Ethics 3 30 70 100 35 50<br />
Practical<br />
8 D37 Analog Electronics Lab 3 30 70 100 35 50<br />
9 D38 Linear and Digital Integrated<br />
Circuits Lab<br />
3 30 70 100 35 50<br />
FOURTH SEMESTER
S.No<br />
.<br />
Sub.<br />
Code Name of the subject Dura<br />
-tion<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
Theory<br />
1 D41 Mathematics <strong>–</strong> III 3 30 70 100 35 50<br />
2 D42 Microprocessors 3 30 70 100 35 50<br />
3 D43 Analog Communication 3 30 70 100 35 50<br />
4 D44 Engineering Electromagnetics 3 30 70 100 35 50<br />
5 D45 Digital Signal Processing 3 30 70 100 35 50<br />
6. D46 Digital Logic with VHDL<br />
Design<br />
3 30 70 100 35 50<br />
Practical<br />
7 D47 Analog Communication Lab 3 30 70 100 35 50<br />
8 D48 Signals and Systems Lab. 3 30 70 100 35 50<br />
9 D49 Professional Communication 3 50 50 100 25 50<br />
S.No<br />
.<br />
FIFTH SEMESTER<br />
Sub.<br />
Code Name of the subject Duration<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
Theory<br />
1 D51 Computational Methods 3 30 70 100 35 50<br />
2 D52 Embedded Micro Controllers 3 30 70 100 35 50<br />
3 D53 Digital Communication 3 30 70 100 35 50<br />
4 D54 Antenna and Wave<br />
Propagation<br />
3 30 70 100 35 50<br />
5 D55 Control Systems 3 30 70 100 35 50<br />
6. D56 CMOS VLSI Systems and<br />
Tools<br />
3 30 70 100 35 50<br />
7 D59 Total Quality Management 3 30 70 100 35 50<br />
Practical<br />
8 D57 Microprocessor & Micro<br />
Controller lab.<br />
3 30 70 100 35 50<br />
9 D58 Analog Communication Lab. 3 30 70 100 35 50<br />
S.No<br />
.<br />
Theory<br />
SIXTH SEMESTER<br />
Sub.<br />
Code Name of the subject Duration<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l
1 D61 Communication System<br />
Design<br />
3 30 70 100 35 50<br />
2 D62 Systems Programming and<br />
Operating systems<br />
3 30 70 100 35 50<br />
3 D63 Computer Networks 3 30 70 100 35 50<br />
4 D64 Microwave Engineering 3 30 70 100 35 50<br />
5 D65 Optical Communication and<br />
Networks<br />
3 30 70 100 35 50<br />
6. D66 Data Structure with OOPS 3 30 70 100 35 50<br />
7 D69 Environmental Science 3 30 70 100 35 50<br />
Practical<br />
8 D67 Microwave and Antenna Lab 3 30 70 100 35 50<br />
9 D68 Computer Networking Lab 3 30 70 100 35 50<br />
S.No<br />
.<br />
SEVENTH SEMESTER<br />
Sub.<br />
Code Name of the subject Duration<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
Theory<br />
1 D71 Wireless Communications 3 30 70 100 35 50<br />
2 D72 Digital Signal Processing<br />
System Design<br />
3 30 70 100 35 50<br />
3 D73 Digital Image Processing 3 30 70 100 35 50<br />
4 D74 RF Systems 3 30 70 100 35 50<br />
5 D7X Elective <strong>–</strong> 1 3 30 70 100 35 50<br />
6. D7X Elective <strong>–</strong> 2 3 30 70 100 35 50<br />
Practical<br />
7 D77 DSP and FPGA Lab 3 30 70 100 35 50<br />
8 D78 RF & Image Processing Lab 3 30 70 100 35 50<br />
VII Semester Electives<br />
A. Operations Research<br />
B. Telecommunication Systems<br />
C. Advanced Signal Processing<br />
D. Embedded Systems<br />
E. Medical Electronics<br />
F. Telecom Network Management<br />
G. Remote Sensing and GIS<br />
EIGHTH SEMESTER
S.No<br />
.<br />
Sub.<br />
Code Name of the subject Duration<br />
Theory<br />
1 D81 Organizational Behavior and<br />
Management<br />
Continuou<br />
s<br />
Assessme<br />
nt<br />
Marks<br />
Termina<br />
l Exam<br />
Max<br />
Marks<br />
Minimum for pass<br />
Termina Total<br />
l<br />
3 30 70 100 35 50<br />
2 D8X Elective 3 3 30 70 100 35 50<br />
3 D8X Elective 4 3 30 70 100 35 50<br />
Practical<br />
4 D84 Project & Viva Voce 3 30 70 100 35 50<br />
VIII Semester Electives<br />
A. ASIC Design<br />
B. Machine Vision<br />
C. Data Compression<br />
D. Data Base Management Systems<br />
E. Principles of Medical Imaging<br />
F. Network Security<br />
G. Virtual Instrumentation<br />
<strong>THIAGARAJAR</strong> <strong>COLLEGE</strong> <strong>OF</strong> <strong>ENGINEERING</strong>, <strong>MADURAI</strong> <strong>625</strong><strong>015</strong><br />
(An Autonomous Institution Affiliated to Anna University)<br />
BE (ELECTRONICS AND COMMUNICATION <strong>ENGINEERING</strong>)<br />
SUBJECTS <strong>OF</strong> STUDY<br />
(For the students admitted in the academic year 2005-06 and after)<br />
SECOND SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D21 Mathematics <strong>–</strong> I 3 1 0 4
D22 Electron Devices 3 1 0 4<br />
D23 Basic Circuit Theory 3 1 0 4<br />
D24 Applied Material Science 3 1 0 4<br />
D25 Applied Chemistry 3 1 0 4<br />
D26 Programming in C 3 1 0 4<br />
Practical<br />
D27 C Programming Lab 0 0 3 2<br />
D28 Electron Devices and Circuits Lab 0 0 3 2<br />
D29 Workshop Practices 0 0 3 2<br />
Credits: 30<br />
THIRD SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D31 Mathematics <strong>–</strong> II 3 1 0 4<br />
D32 Analog Electronics 3 1 0 4<br />
D33 Linear Integrated Circuits 3 1 0 4<br />
D34 Network Analysis and Synthesis 3 1 0 4<br />
D35 Signals and Systems 3 1 0 4<br />
D36 Digital Circuits and Techniques 3 1 0 4<br />
D39 Professional Ethics 3 0 0 3<br />
Practical<br />
D37 Analog Electronics Lab 0 0 3 2<br />
D38 Linear and Digital Integrated Circuits Lab. 0 0 3 2<br />
Credits: 31<br />
FOURTH SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D41 Mathematics <strong>–</strong> III 3 1 0 4<br />
D42 Microprocessors 3 1 0 4<br />
D43 Analog Communication 3 1 0 4<br />
D44 Engineering Electromagnetics 3 1 0 4<br />
D45 Digital Signal Processing 3 1 0 4<br />
D46 Digital Logic with VHDL Design 3 1 0 4<br />
Practical<br />
D47 Analog Communication Lab 0 0 3 2<br />
D48 Signals and Systems Lab. 0 0 3 2<br />
D49 Professional Communication 1 1 1 2<br />
Credits: 30<br />
FIFTH SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D51 Computational Methods 3 1 0 4<br />
D52 Embedded Micro Controllers 3 1 0 4<br />
D53 Digital Communication 3 1 0 4<br />
D54 Antenna and Wave Propagation 3 1 0 4
D55 Control Systems 3 1 0 4<br />
D56 CMOS VLSI Systems and Tools 3 1 0 4<br />
D59 Total Quality Management 3 0 0 3<br />
Practical<br />
D57 Digital Communication Lab 0 0 3 2<br />
D58 Microprocessor and Microcontroller Lab 0 0 3 2<br />
Credits: 31<br />
SIXTH SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D61 Communication System Design 3 1 0 4<br />
D62 Systems Programming and Operating systems 3 1 0 4<br />
D63 Computer Networks 3 1 0 4<br />
D64 Microwave Engineering 3 1 0 4<br />
D65 Optical Communication and Networks 3 1 0 4<br />
D66 Data Structure with OOPS 3 1 0 4<br />
D69<br />
Practical<br />
Environmental Science 3 0 0 3<br />
D67 Microwave and Antenna Lab 0 0 3 2<br />
D68 Computer Networking Lab 0 0 3 2<br />
Credits: 31<br />
EVENTH SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory<br />
D71 Wireless Communications 3 1 0 4<br />
D72 Digital Signal Processing System Design 3 1 0 4<br />
D73 Digital Image Processing 3 1 0 4<br />
D74 RF Systems 3 1 0 4<br />
D7x Elective <strong>–</strong> 1 3 1 0 4<br />
D7x Elective <strong>–</strong> 2 3 1 0 4<br />
Practical<br />
D77 DSP and FPGA Lab 0 0 3 2<br />
D78 RF & Image Processing Lab 0 0 3 2<br />
ELECTIVES:<br />
H. Operations Research<br />
I. Telecommunication Systems<br />
J. Advanced Signal Processing<br />
K. Embedded Systems Design<br />
L. Medical Electronics<br />
M. Telecom Network Management<br />
N. Remote Sensing and GIS<br />
Credits: 28<br />
EIGHTH SEMESTER<br />
Sub. Code Name of the Subject Regulation<br />
L T P C<br />
Theory
D81 Organizational Behavior and Management 3 1 0 4<br />
D8x Elective 3 3 1 0 4<br />
D8x Elective 4 3 1 0 4<br />
Practical<br />
D84 Project and Viva Voce. 0 0 18 12<br />
ELECTIVES:<br />
H. ASIC Design<br />
I. Machine Vision<br />
J. Data Compression<br />
K. Data Base Management Systems<br />
L. Principles of Medical Imaging<br />
M. Network Security<br />
N. Virtual Instrumentation<br />
Question Paper Pattern<br />
Total Number of credits to be earned: 235<br />
Duration: 3 Hours Maximum Marks: 100<br />
The Question paper consists of two parts.<br />
Answer ALL Questions<br />
Part-A : Ten short Questions ( Question No 1 to 10)<br />
Two from each unit<br />
Each question carries 2 marks (10 x 2 = 20)<br />
Part-B: Five Questions (Question No. 11 to 19 covering all units of syllabus)<br />
Question No. 11 is compulsory and may be from any unit of the syllabus. (1 x20 =20)<br />
Question No. 12 to 19 will be of EITHER <strong>–</strong> OR type from the remaining units<br />
(4 x 15 =60)<br />
Mark secured will be reduced to a maximum of 70 during processing.<br />
Credits: 24
D21 MATHEMATICS - I<br />
Unit-I: Multiple Integrals: Double integration - Cartesian and polar coordinates -<br />
Change of order of integration - Area as a double integral - Triple integration in Cartesian coordinates -<br />
Change of variables between Cartesian and polar coordinates and between Cartesian and cylindrical<br />
spherical polar coordinates.<br />
Unit<strong>–</strong>II: Vector Calculus: Gradient - Divergence and curl - Line, surface and volume integrals - Green’s<br />
Theorem - Gauss divergence Theorem - Stoke’s Theorems (Without Proof) - Verification of the above<br />
theorems and evaluation of integrals using them.<br />
Unit<strong>–</strong>III: Analytic Functions: Function of a complex variable - Analytic function - Necessary conditions -<br />
Cauchy Riemann equations in Cartesian and polar coordinates - Sufficient conditions (All without proof)<br />
Properties of analytic function - Determination of harmonic conjugate by MilneThomson method -<br />
Conformal mapping a z + b, z 2 , 1<br />
z , e z , sin z , cos z , az�b<br />
, Schwartz Christoffel<br />
cz�d<br />
transformation.<br />
Unit<strong>–</strong>IV: Complex Integration: Statement and application of cauchy’s theorem and Cauchy’s integral<br />
formula - Taylor and Laurent expansion - Singularities <strong>–</strong> Classification <strong>–</strong> Residues - Cauchy’s residue<br />
theorem - Contour integration - Unit circle and semi-circular contours (excluding poles on real axis).<br />
Unit<strong>–</strong>V: Laplace Transform: Laplace Transform - Sufficient conditions - Transforms of elementary<br />
functions - Basic properties - Inverse transforms - Derivatives and integrals of transforms - Transforms of<br />
derivatives and integrals - Convolution theorem - Transform of periodic functions - Laplace transform of<br />
Dirac Delta and unit step functions - Second shifting theorem - Application to solution of linear<br />
differential equation - constant coefficient - variable coefficient - simultaneous differential equations -<br />
Integral equations - initial and final value theorems.<br />
Text Books:<br />
1. Grewal, B.S., “Higher Engineering Mathematics”, Thirty Sixth Edition, Khanna Publishers, Delhi,<br />
2001.<br />
Reference Books:<br />
1. Veerarajan, T., “Engineering Mathematics (for First Year),” Second Edition, Tata McGraw <strong>–</strong> Hill<br />
Pub. Co. Ltd., New Delhi, 2002.<br />
2. Venkataraman, M.K. ., Engineering Mathematics, Volume I,” Fourth Edition, The National Pub.<br />
Co., Chennai, 2003.<br />
3. Kandasamy, P., Thilagavathy, K., and Gunavathy, K., “Engineering Mathematics” Volume I,<br />
Fourth Revised Edition, S. Chand & Co., New Delhi, 2000.<br />
4. Erwin Kreyszig, “Advanced Engineering Mathematics”, Eighth Edition John Wiley & Sons, 2001.<br />
D22 ELECTRONIC DEVICES & CIRCUITS<br />
L T P C<br />
3 1 0 4<br />
L T P C<br />
3 1 0 4<br />
Unit I : Semiconductor Diode Theory: Semiconductor Diode <strong>–</strong> Ideal Diode <strong>–</strong> Resistance Levels <strong>–</strong><br />
Equivalent Circuits <strong>–</strong> Transition and Diffusion Capacitances <strong>–</strong> Reverse Recovery Time <strong>–</strong> Zener Diodes -<br />
Light Emitting Diodes <strong>–</strong> Diode Arrays <strong>–</strong> Load line analysis <strong>–</strong> Diode Approximations <strong>–</strong> Series Diode<br />
Configurations with DC inputs <strong>–</strong> Parallel and Series-parallel Configurations <strong>–</strong> AND / OR Gates.
Unit II :BJTs - Theory & Biasing: Transistor Construction <strong>–</strong> Operation <strong>–</strong> Common Base, Common<br />
Emitter, Common Collector Configurations <strong>–</strong> Transistor amplifying action <strong>–</strong> Operation Limits <strong>–</strong> Transistor<br />
Testing <strong>–</strong> Operating Point <strong>–</strong> Fixed Bias <strong>–</strong> Emitter Bias <strong>–</strong> Voltage Divider Bias Circuits <strong>–</strong> Bias Stabilization.<br />
UNIT <strong>–</strong> III: FETs - Theory & Biasing: Field Effect Transistors <strong>–</strong> Construction and Characteristics <strong>–</strong><br />
Transfer characteristics <strong>–</strong> Relationships- Depletion Type MOSFET <strong>–</strong> Enhancement Type MOSFET <strong>–</strong><br />
VMOS <strong>–</strong> CMOS <strong>–</strong> Fixed Bias, Self Bias, Voltage Divider Bias Configurations - P channel FETs <strong>–</strong><br />
Universal JFET Bias Curve.<br />
UNIT-IV Other Electron Devices: Schottkey, Varactor, Power, Tunnel and Photo Diodes <strong>–</strong> Photo<br />
Conductive Cells <strong>–</strong> IR Emitters <strong>–</strong> Liquid Crystal Displays <strong>–</strong> Solar Cells <strong>–</strong> Thermistors <strong>–</strong> SCR <strong>–</strong> Operation,<br />
Characteristics and Applications <strong>–</strong> DIAC <strong>–</strong> TRIAC <strong>–</strong> Photo Transistors <strong>–</strong> Opto Isolators<br />
UNIT <strong>–</strong>V Applications: Power Supplies: Capacitor Filter <strong>–</strong> RC Filter <strong>–</strong> Transistor Voltage Regulation <strong>–</strong><br />
IC Voltage Regulators. Diode Applications: Half Wave Rectification <strong>–</strong> Full Wave Rectification <strong>–</strong> Clippers<br />
<strong>–</strong> Clampers <strong>–</strong> Voltage Multiplier Circuits. BJT Applications: Relay Driver <strong>–</strong> Transistor Switch <strong>–</strong> Voltage<br />
Level Indicator .FET Applications: VVR <strong>–</strong> Timer Network <strong>–</strong> FET in Fiber Optic System - PSPICE<br />
Simulation of CE, CE, CC Configurations.<br />
Text Book:<br />
Robert L.Boylested, Louis Nashelsky “Electronic Devices and Circuit Theory”, Eighth Edition, Pearson<br />
Education Asia, 2002<br />
Reference Books:<br />
1. Faculty of Network Institutions, “Analog Electronics”, Project Network Engineering Series, 2004<br />
2. David A. Bell, “Electronic Devices and Circuits”, Fourth Edition, Prentice Hall India, 1999.<br />
3. Albert Paul Malvino, “Electronic Principles”, Tata McGraw Hill , 2002<br />
4. Bernard Grob , “Electronic Circuits & Applications”, McGraw Hill ,1992<br />
D23 BASIC CIRCUIT THEORY<br />
L T P C<br />
3 1 0 4<br />
Unit <strong>–</strong> I: Methods of Circuit Analysis: Network graphs: Matrices associated with graphs; incidence,<br />
fundamental cut set and fundamental circuit matrices. Solution Methods: Kirchoff voltage law <strong>–</strong> Kirchoff<br />
current law <strong>–</strong> Mesh analysis <strong>–</strong> Super mesh analysis <strong>–</strong> Nodal analysis <strong>–</strong> Supernode analysis <strong>–</strong> Source<br />
transformation technique <strong>–</strong> Star delta transformation.<br />
Unit <strong>–</strong> II: Theorems in Circuit Analysis: Superposition theorem <strong>–</strong> Thevenin’s theorem <strong>–</strong> Norton’s<br />
theorem <strong>–</strong> Reciprocity theorem <strong>–</strong> Compensation theorem <strong>–</strong> Maximum power transfer theorem <strong>–</strong> Duals and<br />
duality Tellegen’s theorem <strong>–</strong> Millman theorem.<br />
Unit <strong>–</strong> III: AC Analysis: Waveforms and Signals: Periodic functions <strong>–</strong> Sinusoidal functions <strong>–</strong> Time Shift<br />
and Phase shift- Combinations of periodic Functions- Non periodic functions-Sinusoidal Steady State<br />
Circuit Analysis: Mesh Current Method <strong>–</strong>Node Voltage Method <strong>–</strong> Network Theorems. AC Power: Power<br />
in the Time Domain <strong>–</strong>Power in sinusoidal steady state-average or Real power <strong>–</strong> AC power in R, L and C.
Unit <strong>–</strong> IV: Coupled & Poly phase Circuits: Coupled Circuits: Mutual inductance <strong>–</strong>Coupling Coefficient <strong>–</strong><br />
Transformer-Tuned Coupled Circuits (Single, Double). Poly Phase Circuits: Two phase systems <strong>–</strong> Three<br />
phase systems- Wye and Delta Systems- Phasor Voltages- Balanced & Unbalanced loads- Three phase<br />
power <strong>–</strong> Power measurement and the two wattmeter method.<br />
Unit <strong>–</strong> V : Transients: Differential Equations- Laplace Transform- Steady state and transient response:<br />
DC response of RL,RC, and RLC circuits <strong>–</strong> Sinusoidal response of RL, RC and RLC circuits <strong>–</strong> Resonance:<br />
Natural frequency and Damping Ratio- Series Resonance- Parallel Resonance- Quality Factor <strong>–</strong> Practical<br />
LC Parallel Circuit- Series parallel conversions <strong>–</strong> Locus Diagrams.<br />
Text Book:<br />
1. Joseph. A.Edminister and Mahmood Nahvi, “Theory and Problems of Electric Circuits”, Tata<br />
McGraw-Hill, 2002.<br />
2. Jack E. Kemmerly,<br />
William H. Hayt and Steven M. Durbin, “Engineering Circuit Analysis”, McGraw-<br />
Hill, 2001.<br />
Reference Books:<br />
1. Mahmood Nahvi,<br />
Joseph A. Edminister, William T. Smith, “Schaum's Easy Outlines: Electric<br />
Circuits” Tata McGraw-Hill, 2004.<br />
2. K.V.V. Murthy and M.S.Kamath, “Basic Circuit Analysis”, 1st edition (reprinted with corrections)<br />
Jaico Publishing, 1998.<br />
3. Robert L. Boylested, “Experiments in Circuit Analysis to Accompany Introductory Circuit Analysis”,<br />
Prentice Hall India, 9th Edition, 2000.<br />
4. Sudhakar A and Shyammohan SP, “Circuits and Networks <strong>–</strong> Analysis and Synthesis”, Tata McGraw<br />
Hill, 2002.<br />
D24 APPLIED MATERIALS SCIENCE<br />
L T P C<br />
3 1 0 4<br />
Unit <strong>–</strong> I: Conducting Materials: Quantum free electron theory <strong>–</strong> theory of electrical and thermal<br />
conductivity <strong>–</strong> Widemann Franz Law <strong>–</strong>problems-Examples of conducting materials <strong>–</strong> Cu, A1, Ag <strong>–</strong><br />
Structural features <strong>–</strong> Properties <strong>–</strong> applications. Super Conducting Materials: High temperature super<br />
conducting materials <strong>–</strong> examples <strong>–</strong> RVB theory - applications <strong>–</strong> SQUID.<br />
Unit <strong>–</strong> II: Semi Conducting Materials: Hall effect <strong>–</strong> Hall co-efficient determination <strong>–</strong> elemental<br />
semiconductors <strong>–</strong> Group IV elements <strong>–</strong> general properties <strong>–</strong> common dopants <strong>–</strong> Group VI elements <strong>–</strong><br />
properties <strong>–</strong> Inter-metallic compounds <strong>–</strong> general features <strong>–</strong> properties - advantages <strong>–</strong> GaAS <strong>–</strong> InSb <strong>–</strong><br />
properties <strong>–</strong> structural features <strong>–</strong> applications <strong>–</strong> compound semiconductors <strong>–</strong> CdS <strong>–</strong> CdSe <strong>–</strong> CdTe <strong>–</strong><br />
properties <strong>–</strong> structural features <strong>–</strong> applications <strong>–</strong> Role of oxygen in conductivity <strong>–</strong> ZnO <strong>–</strong> Mg O <strong>–</strong> structural
properties <strong>–</strong> advantages.<br />
Unit <strong>–</strong> III: Magnetic Materials: Types of magnetic materials <strong>–</strong> Weiss theory of ferro magnetism <strong>–</strong> ferro<br />
magnetic materials Fe, Co, Ni <strong>–</strong> general properties <strong>–</strong> applications <strong>–</strong> hard and soft magnetic materials <strong>–</strong><br />
properties <strong>–</strong> ferrites <strong>–</strong> properties <strong>–</strong> applications. Electromagnetic smart materials: An algorithm for<br />
synthesizing smart materials <strong>–</strong> Sensors <strong>–</strong> Actuators <strong>–</strong> Processors <strong>–</strong> Shape memory Alloys, Ni <strong>–</strong>Ti alloys,<br />
Cu <strong>–</strong> Zn alloys <strong>–</strong> Characteristics <strong>–</strong> applications <strong>–</strong> Smart materials featuring piezo-electric elements.<br />
Unit <strong>–</strong> IV: Dielectric Materials: Internal field <strong>–</strong> Clausius Mosotti equation-derivation <strong>–</strong> numerical<br />
examples <strong>–</strong> ferro electricity <strong>–</strong> ferro electric materials <strong>–</strong> Ba Ti O3 <strong>–</strong> Piezo electric materials <strong>–</strong> Quartz, rock<br />
salt <strong>–</strong> Ba Ti O3 <strong>–</strong> Insulating materials-examples. Optical Materials : Colour Centres (F & V Centres) <strong>–</strong><br />
Optical fibres <strong>–</strong> glass and plastic fibres <strong>–</strong> Characteristics <strong>–</strong> Structural features <strong>–</strong> applications Luminescent<br />
and fluorescent materials <strong>–</strong> ZnS <strong>–</strong> BaS <strong>–</strong> properties and applications.<br />
Unit <strong>–</strong> V: Characterization Techniques: Thermal Analytical techniques- TGA, DSC, DTA <strong>–</strong> X ray<br />
Analysis <strong>–</strong> Electron beam techniques- SEM, TEM- Atomic Force Microscopy <strong>–</strong> Spectroscopic methods<br />
-NMR, ESR, MW spectroscopy.<br />
Text Books:<br />
1. Charles Kittel, “Introduction to Solid State Physics”, John Wiley & Sons 1997.<br />
2. Azaraf & Brophy, “Electronic Processes in Materials”, Mc Graw Hill 1963.<br />
References:<br />
1. A.M. Wahab, “Solid State Physics”, Narasha Publishing house, New Delhi, 1999.<br />
2. M.V. Gandhi & SS Thompson, “Smart Materials & Structures”, Chapman & Hall, London 1992.<br />
3. William David Cooper, “Electronic Instrumentation and Measurements”, Dhanpat Rai & Sons,<br />
New Delhi 1997.<br />
4. S.O. Pillai, “Solid State Physics”, New Age International (P) Ltd., 2000.<br />
5. B.P. Stranghan and S. Walker, “Spectroscopy-Vol. I”, Chapman and Hall Ltd., London, 1996.<br />
6. Belk. J.A., “Electron Microscopy and Micro Analysis of Crystalline Materials”, Applied Science<br />
Publishers, London, 1999.<br />
D25 APPLIED CHEMISTRY<br />
L T P C<br />
Unit <strong>–</strong> I: Electrochemistry: Electrode potential <strong>–</strong> Ernst equation <strong>–</strong><br />
3 1 0 4<br />
Electrochemical series <strong>–</strong> Decomposition potential <strong>–</strong> Over voltage <strong>–</strong> Polarization <strong>–</strong> Reversible and<br />
Irreversible Electrodes and Cells. Interfacial phenomenon <strong>–</strong> Zeta potential <strong>–</strong> Electro osmosis <strong>–</strong><br />
Electrophoresis <strong>–</strong> Streaming Potential <strong>–</strong> Dorn Effect <strong>–</strong> Electrodialysis. Electrotechnical Processes <strong>–</strong><br />
Electrowinning <strong>–</strong> Electrocleaning <strong>–</strong> Electropolishing - Electroforming.<br />
Unit <strong>–</strong> II: Electroanalytical Instrumentation: Electrodes and their types <strong>–</strong> Gas, Metal and Metal<br />
compounds <strong>–</strong> Standard and Reference - Chemically modified Electrodes <strong>–</strong> Clarke’s electrode.<br />
Conductivity, Potential and pH measurements.<strong>–</strong> Galvanometry and Potentiometry <strong>–</strong> Pulse forms and<br />
sequences for Voltammetry <strong>–</strong> Electron transfer and relay systems <strong>–</strong> Morphology and Particles size analysis<br />
including Nanoparticles <strong>–</strong> X-ray diffraction, Scanning Electron Microscope, Transmission Electron<br />
Microscope methods (principles only). Radio isotopes and Radiochemistry for Clinical applications.<br />
Unit <strong>–</strong> III: Chemistry and Applications of Advanced Materials: Conducting Polymers: Organic<br />
conducting molecules and polymers <strong>–</strong> Preparation, properties an characterization <strong>–</strong> Conducting copolymers<br />
<strong>–</strong> Conducting polymer composites, metals, metal oxides. Nanoparticles: Preparation <strong>–</strong> Physico-chemical
and mechanical methods <strong>–</strong> Sol-gel technique <strong>–</strong> Metals, Metal oxides <strong>–</strong> Carbon Nano Tubes. Sensors:<br />
Types of Sensors <strong>–</strong> Chemical and Biosensors <strong>–</strong> Physical principles of function of Electrochemical and<br />
Optical transducers.<br />
Unit <strong>–</strong> IV: Thin Films: Formation of thin film <strong>–</strong> Vacuum evaporation, Sputtering, Gas plating,<br />
Electroplating, Electroless plating, Silk-screening. IC Fabrication: Wafer preparation <strong>–</strong> Epitaxial growth,<br />
Oxidation, Photolithography, Diffusion, Metallization. Etching Techniques: Surface preparation <strong>–</strong><br />
Resists, Photoresists <strong>–</strong> Etching Types and Processes.<br />
Unit <strong>–</strong> V: Battery Technology: Primary Cells: Leclanche cell, Magnesium cell. Secondary Cells<br />
(Storage Batteries): Lead-Acid accumulator, Edison Alkaline accumulator - Silver-Zinc accumulator.<br />
Rechargeable Cells: Lithium batteries. Fuel Cells: Bischoff Fuel cell, Davtyan Water gas cell, Redox<br />
cell, Hydrogen-Oxygen Fuel cell. Photogalvanic (Solar) cells and Micro Batteries: Materials,<br />
functioning and applications.<br />
Text Books:<br />
1. Samuel Glasstone, ‘An Introduction to Electrochemistry’, Affiliated East-West Press Pvt. Ltd.,<br />
New Delhi, 1999<br />
2. V. Subramaniam, K. Ganesan, S. Ganesh, ‘Chemistry for Engineers’, Scitech, 1999.<br />
3. Bahl B.S., Tuli G.D., Arun Bahl, ‘Essentials of Physical Chemistry’, S.Chand & Co. Ltd., New<br />
Delhi, 2003<br />
Reference Books:<br />
1. Edmund C. Potter, ‘Electrochemical Principles and Applications’, Cleaver-Hume Press Ltd., 1961<br />
2. Philip H. Rieger, ‘Electrochemistry’, Prentice-Hall, Inc., New Jersey, 1987<br />
3. A.J. Bard and L.R. Faulkner, ‘Electrochemical Methods: Fundamentals and Applications’.<br />
4. Terje A.Skothim, Ronald L. Elsenbaumer and John R Reynolds, ‘Hand Book of Conducting<br />
Polymers’, Marcel Dekker Inc., New York.<br />
5. R.M. Warner, ‘Integrated Circuits <strong>–</strong> Design, Principle an Fabrication’, McGraw Hill, 1984<br />
6. Wang M.N., ‘Polymers for Electronic and Photonic Applications’, Wiley, New York, 1994<br />
7. D.D. Sood & Sons, ‘Principles of Radio Chemistry’, Vol.1 & 2, Indian Society of Nuclear<br />
Chemists and Allied Scientists, Mumbai, 1996<br />
D26 Programming in C<br />
L T P C<br />
3 1 0 4<br />
Unit I: Introduction to the C Language: Overview of Computer Languages - C Language and its<br />
Advantages -The Structure of a C Program - Basic ‘C’ Programs - Debugging a C Program - Examining<br />
and Running a C Application Program. Input/Output Management: printf() <strong>–</strong> scanf() Functions.<br />
Unit <strong>–</strong> II: Data Types and Variables: Basic Data Types - Storage Classes. Control-Flow Statements: The<br />
Control-flow Program Statements - Looping Statements - Expressions <strong>–</strong> operators - type casting - operator<br />
precedence. Functions: The C Function <strong>–</strong> Argument Passing to Functions - C Standard Library Functions.<br />
Unit III: Arrays & Structures: Arrays - Multidimensional arrays <strong>–</strong> Structures <strong>–</strong> Array of Structures <strong>–</strong><br />
Passing Structures to Functions <strong>–</strong> Nested Structures <strong>–</strong> Union. Strings: String <strong>–</strong>Strings operations
Unit <strong>–</strong> IV: Pointers: Pointers <strong>–</strong> Meaning and declaration <strong>–</strong> Initialization <strong>–</strong> Accessing Memory Locations <strong>–</strong><br />
Pointers as function parameters <strong>–</strong> Pointer Arithmetic <strong>–</strong> Pointer to functions <strong>–</strong> Pointer to a pointer <strong>–</strong> Pointers<br />
and Arrays <strong>–</strong> Pointers and Strings <strong>–</strong> Array of Pointers and Pointers to an array. Dynamic Memory<br />
Allocation: Dynamic Memory Allocation - malloc()- calloc() <strong>–</strong> realloc().<br />
Unit <strong>–</strong> V: The Preprocessor and Multiple-file Compilation: The C Preprocessor Directives - The<br />
Conditional Compilation Directives - Program Organization and Multi-file Compilation Command line<br />
arguments &File Input/Output: Command-line arguments -File Input and Output operartions-Combining<br />
Command-line Arguments and File I/O.<br />
Text Book:<br />
1. Kerninghan, B., Ritchie, D.: “The C Programming Language”, 2nd edition, Addison-Wesley,<br />
1989<br />
Reference Books:<br />
1. Yashwant Kanetkar, “Let us C”, BPB Publications, 2001.<br />
2. Balagurusamy. E, “Programming in ANSI-C”, Third Edition, 2004<br />
D27 C PROGRAMMING LABORATORY<br />
� Search Algorithms<br />
� Sorting Algorithms<br />
� Matrix Manipulations<br />
� File Handling<br />
� Pointers<br />
� Interrupts<br />
� Linked List<br />
� Exception<br />
� Graphics<br />
� Solutions of Simultaneous Equations.<br />
D28 ELECTRONIC DEVICES AND CIRCUITS LABORATORY<br />
• Verification of Circuit Laws<br />
L T P C<br />
0 0 3 2<br />
L T P C<br />
0 0 3 2
• Verification of Network Theorems<br />
• Resonance Circuits<br />
• Measurement of R,L,C, Q and power factor<br />
• V-I Characteristics of PN, Zener diode<br />
• Wave shaping circuits<br />
• Rectifiers<br />
• Characteristics of field effect transistors<br />
• Characteristics of field effect transistors<br />
• Characteristics of unijunction transistors<br />
• Regulators<br />
• Simulation using PSPICE<br />
D31 MATHEMATICS <strong>–</strong> II<br />
UNIT <strong>–</strong> I: Fourier Series: Dirichlet’s conditions - General Fourier series - Half range sine and cosine<br />
series - Parseval’s Identity - Harmonic Analysis - Complex form of Fourier series - Double Fourier Series -<br />
Simple problems. (10 Periods)<br />
UNIT <strong>–</strong> II: Fourier Transforms: Fourier integral theorem - Fourier transform - Fourier sine and cosine<br />
transforms <strong>–</strong> properties - convolution theorem - Parseval’s identify - Introduction to Discrete Fourier<br />
Transform - Discrete Time Fourier Transform and Fast Fourier Transform - Simple problems.<br />
(10<br />
Periods)<br />
UNIT <strong>–</strong> III: Partial Differential Equations: Formation - solution of standard types of first order<br />
equations - Lagrange’s linear equation - linear partial differential equations of second and higher order<br />
with constant coefficient. (10<br />
Periods)<br />
UNIT <strong>–</strong> IV: Boundary Value Problems: Classification of second order linear partial differential equations<br />
<strong>–</strong> One-dimensional wave equation One-dimensional heat equation, solution by Fourier series and Fourier<br />
transform method. (10 Periods)<br />
UNIT <strong>–</strong> V: Boundary Value Problems (contd.): Steady state solution of two dimensional heat equation in<br />
Cartesion coordinates - Solution by Fourier series and Fourier transform method - Laplace equation in<br />
polar coordinates - Solution by Fourier series method.<br />
(10 Periods)<br />
Text Book:<br />
1 .Grewal, B.S., “Higher Engineering Mathematics”, Thirty Sixth Edition, Khanna Publishers, Delhi,<br />
2001.<br />
Reference Books:<br />
Veerarajan, T., “Engineering Mathematics” (For Semester III) Second Edition, Tata McGraw <strong>–</strong> Hill<br />
Pub. Co. Ltd., New Delhi, 2002.<br />
Venkataraman, M.K., “Engineering Mathematics”, Fourth Edition, the National Pub. Co., Chennai,<br />
2003.<br />
Kandasamy, P., Thilagavathy, K., and Gunavathy, K., “Engineering Mathematics”, Fourth Revised<br />
Edition, S. Chand & Co., New Delhi. 2000.<br />
Erwin Kreyszig, “Advanced Engineering Mathematics”, Eighth Edition John
Wiley & Sons, 2001.<br />
D32 ANALOG ELECTRONICS<br />
Unit-I BJT & FET Small Signal Analysis : Common Emitter Fixed Bias, Voltage Divider Bias, CE<br />
Emitter-Bias, Emitter-Follower, Common <strong>–</strong>Base Configuration, Approximate hybrid Equivalent Circuit,<br />
Complete Hybrid Equivalent Model, FET Small Signal Model, JFET-Fixed Bias ,Self Bias, Voltage<br />
Divider, Depletion <strong>–</strong>Type MOSFETs, Enhancement-type MOSFETs, E-MOSFET- Drain Feedback<br />
Configuration, Voltage Divider configuration, Designing FET Amplifier Networks.<br />
(10 Periods)<br />
Unit-II Power Amplifier: Class A Common Emitter Power Amplifier-Transformer Coupled Amplifier-<br />
Class B Pushpull Amplifier-Amplifiers using Complementary Symmetry Class C Amplifier-Class D<br />
Amplifier-Class S Amplifier (10 Periods)<br />
Unit-III Feedback Amplifier: Classification of Amplifiers-Feedback Concept-Effect of Negative<br />
Feedback-Method of analysis of feedback Amplifier-Voltage Series feedback-Current Series-Current<br />
Shunt-Voltage Shunt Feedback Amplifier. (10 Periods)<br />
Unit-IV Oscillators: Theory of Oscillator-Classification of Oscillators-RC Phase Shift Oscillator-Wien<br />
Bridge Oscillator-Twin T Oscillator-Hartley Oscillator-Colpitts Oscillator-Clapp Oscillator -Armstrong<br />
Oscillator-Frequency Stability of Oscillator-Tuned Collector Oscillator-Negative Resistance Oscillator-<br />
Crystal Oscillators (10 Periods)<br />
Unit-V Blocking Oscillators and Time base Generators: Pulse Transformer- Monostable Blocking<br />
Oscillators -Emitter Timing -Base Timing, Astable Blocking Oscillators - Diode Controlled- RC<br />
Controlled, Introduction to Sawtooth Generators-Sweep Parameters- Sawtooth Generator Circuits-UJT<br />
Sawtooth Generators-Miller Circuits-Bootstrap Circuits-Current Time Base Generators-Linearization<br />
Using Constant Current Circuit-Practical Transistor Current Time Base Generators.<br />
(10 Periods)<br />
Text Books<br />
1. Robert L.Boylestead and Louis Nasheresky, “Electron Devices and Circuits: Theory<br />
and Practice” 8 th Edn., PHI, 2002.( I )<br />
1. D.L.Schilling and C.Belove, “Electronics Circuits: Discrete and Integrated”, Third Edition, 1999.<br />
( II )<br />
2. Millman and Halkias.C., “Integrated Electronics” Tata McGraw Hill,1991 ( III )<br />
3. Malvino, “Electronic Principles”, Tata McGraw Hill ,5th Edn.,1996.( IV )<br />
4. Millman J.and Taub H.,” Pulse Digital and Switching Waveform”, McGraw Hill.(V)<br />
Reference books:<br />
1. Faculty of Networks Institutions, “Analog Electronics”, Project Network<br />
Engineering Series, 2004<br />
2. David A.Bell, “Electronic Devices and Circuits”, PHI, Third Edition,1998.<br />
3. Bernard Grob,”ElectronicCircuits and Applications”,McGraw Hill,1992<br />
D33 LINEAR INTEGRATED CIRCUITS
Unit I: Operational Amplifier Introduction: Introduction to linear integrated circuits <strong>–</strong> Types<br />
-developments of ICs <strong>–</strong> Basic information of op-amp -- DC Characteristics <strong>–</strong> Input offset voltage <strong>–</strong> Input<br />
bias circuit <strong>–</strong> Input offset current <strong>–</strong> Thermal drift <strong>–</strong>AC Characteristics - Frequency response <strong>–</strong> Stability.<br />
(10<br />
Periods)<br />
Unit II: Operational Amplifier Specifications: Definition of terms : Input resistance, unity <strong>–</strong> Gain B.W,<br />
large signal voltage gain, input offset voltage, input bios current, input offset current, CMRR, output<br />
voltage swing, slew <strong>–</strong> rate, power B.W, use of manufactures data sheets for various op-amps. Exact and<br />
approximate output voltage due to VI0, IB and Iios, Use of compensating resister to minimize output<br />
voltage. Input resistance for inverting, non- inverting and source follower circuits.<br />
(10 Periods)<br />
Unit III: Op-amp applications: Summer <strong>–</strong> Subtractor <strong>–</strong> adder and subtractor <strong>–</strong> Instrumentation amplifier <strong>–</strong><br />
AC amplifier- DC amplifier <strong>–</strong> V to I and I to V converters - Op-Amp circuits using diodes <strong>–</strong> sample and<br />
hold circuit <strong>–</strong> log and antilog amplifiers- Multipliers and dividers <strong>–</strong> Differentiator and integrator.<br />
(10 Periods)<br />
Unit IV: Comparator, Voltage Regulators and 555 Timer: Comparator <strong>–</strong> Regenerative comparator <strong>–</strong><br />
Square wave generator <strong>–</strong>Monostable Multivibrator- Triangular wave generator - Sine wave generator <strong>–</strong><br />
Regulators <strong>–</strong> Series op-amp regulator- IC voltage regulator -723 General Purpose regulator <strong>–</strong> Switching<br />
regulator - 555 Timer - functional diagram <strong>–</strong> Monostable and Astable operation <strong>–</strong> Schmitt trigger.<br />
(10 Periods)<br />
Unit V: DAC, PLL and Filters: PLL- Principle of PLL <strong>–</strong>Phase detector <strong>–</strong> VCO <strong>–</strong> Monolithic PLL- PLL<br />
applications <strong>–</strong> Basic DAC techniques <strong>–</strong> DAC/ADC specifications <strong>–</strong> Review of filter basics <strong>–</strong> Order of<br />
response and number poles concept <strong>–</strong> Advantages of and limitations of active filters <strong>–</strong> One op-amp<br />
realization of single pole LP, HP, Switched capacitor filter.<br />
(10 Periods)<br />
Text books:<br />
1. Stanley, “Operation Amplifiers with Linear Integrated Circuits”, 4 th Edition, Prentice Hall, 2002<br />
2. D.Roy Choudhury and Shail Jain, “Linear Integrated Circuits” New Age international (P) Ltd.<br />
1998.<br />
Reference Books:<br />
1. Ramakant A. Gayakwad, “Op- Amps and linear integrated Circuits”, Prentice Hall of India, 1997.<br />
2. Jacob, “Applications & Design with Analog Integrated Circuits”, Reston Publications,1999<br />
D34 NETWORK ANALYSIS AND SYNTHESIS<br />
Unit <strong>–</strong> I: Network Analysis: Terminal ports <strong>–</strong> Network functions for one part and two port- Ladder<br />
network <strong>–</strong> General networks <strong>–</strong> Poles and zeros of network functions- Restrictions on pole and zero<br />
Locations for driving point functions and transfer functions <strong>–</strong> Time domain behavior from the poles and<br />
zero plot <strong>–</strong> Stability of active networks. (10 Periods)<br />
Unit <strong>–</strong> II: Two Port Parameters: Relationship of two port variables <strong>–</strong> Open circuit impedance parameters,<br />
short circuit admittance parameters <strong>–</strong> Transmission (ABCD) parameters <strong>–</strong> Hybrid (h) parameters <strong>–</strong> Inverse<br />
hybrid (h) and transmission parameters <strong>–</strong> Relationships between parameters sets parallel connection of two
port networks <strong>–</strong> T and TT representation <strong>–</strong> Lattice networks <strong>–</strong> Image parameters.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Network Synthesis : Hurwitz polynomials <strong>–</strong> Positive real functions- Synthesis of<br />
reactive one port by Foster and Cauer method <strong>–</strong> Synthesis of RL & RC, and LC networks by Foster and<br />
Cauer methods. Synthesis of Lattice Networks: Impedance equations <strong>–</strong> Synthesis of loaded and<br />
unloaded lattice networks <strong>–</strong> Lattice decomposition . (10 Periods)<br />
Unit <strong>–</strong> IV: Filters: Butterworth form of response <strong>–</strong> Chebyshev form of response <strong>–</strong>Frequency<br />
transformation- First order low pass and high pass Butterworth filters <strong>–</strong> Band pass and band reject filters <strong>–</strong><br />
All pass filters -Higher order active filters - Design of constant <strong>–</strong> K, M <strong>–</strong> derived and composite filters.<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Attenuators & Equalizers: Attenuators-T <strong>–</strong> type Attenuator <strong>–</strong> Type Attenuator-<br />
Lattice Attenuator <strong>–</strong> Bridged -T attenuator - L Type Attenuator <strong>–</strong> Equalizers-Inverse Networks <strong>–</strong> Series<br />
Equalizer <strong>–</strong> Full Series Equalizer- Shunt Equalizer <strong>–</strong> Full Shunt Equalizer- Constant Resistant Equalizer <strong>–</strong><br />
Bridged <strong>–</strong> T Attenuation Equalizer <strong>–</strong> Bridged <strong>–</strong>T Phase Equalizer- Lattice Attenuation Equalizer <strong>–</strong> Lattice<br />
Phase Equalizer. (10 Periods)<br />
Text Books:<br />
1. M.E. Van Valken Burg, “Network Analysis”, PHI Third Edition, 1989.<br />
2. M.E.Van Valken Burg, “Network Synthesis”, PHI ,1989.<br />
Reference Books:<br />
1. Umesh Sinha, “Network Analysis and Synthesis”, Satya Prakashan, 1997.<br />
2. Sudhakar A and Shyammohan SP, “Circuits and Networks <strong>–</strong> Analysis and Synthesis”, Tata<br />
McGraw Hill, 2001.<br />
3. Frankelin Kuo, “ Network analysis & Synthesis”, McGrawHill, 1990<br />
4. Ram Gayakwad, “Op-Amps and Linear Integrated Circuits”, Prentice Hall, 4th Edition, 1999<br />
D35 SIGNALS AND SYSTEMS<br />
Unit <strong>–</strong> I: Signal and System Modeling Concepts: Introduction <strong>–</strong> Signal Models <strong>–</strong> Energy and Power<br />
Signals <strong>–</strong> Energy and Power Signal Densities; System Modeling and Analysis in the Time Domain:<br />
Introduction <strong>–</strong> System Modeling Concepts <strong>–</strong> Superposition Integral for fixed, Linear Systems <strong>–</strong> Impulse<br />
Response of Fixed, Linear Systems <strong>–</strong> Superposition Integrals In terms of Step Response <strong>–</strong> Frequency<br />
Response Function of Fixed, Linear System.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Fourier Series: Introduction <strong>–</strong> Trigonometric Fourier Series for Periodic Signals - Complex<br />
Exponential Fourier Series <strong>–</strong> Symmetry Properties <strong>–</strong> Parseval’s Theorem <strong>–</strong> Steady-state response of Fixed,<br />
Linear System ; Fourier Transform: Introduction <strong>–</strong> Fourier Integral <strong>–</strong> Energy Spectral Density <strong>–</strong> Fourier<br />
Transform Theorems <strong>–</strong> System Analysis <strong>–</strong> Steady-state System Response.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Laplace Transform: Introduction <strong>–</strong> Laplace Transform Theorems <strong>–</strong> Inversion of Rational<br />
Functions <strong>–</strong> Inverse Laplace Transform; State-Variable Techniques: Introduction <strong>–</strong> State Equations <strong>–</strong><br />
Time Domain Solution <strong>–</strong> Frequency Domain Solution <strong>–</strong> State Transition Matrix <strong>–</strong> State Equations for<br />
Electrical Networks, Transfer Functions. (10 Periods)<br />
Unit <strong>–</strong> IV: Discrete-Time Signals and Systems: Introduction <strong>–</strong> ADC <strong>–</strong> The Z-Transform <strong>–</strong> Linearity <strong>–</strong><br />
Initial Value and Final Value Theorem <strong>–</strong> Inverse Z-Transform -Difference Equations and Discrete-Time
System <strong>–</strong> Properties of Systems <strong>–</strong> Difference Equations <strong>–</strong> Frequency Response of Linear Discrete Time<br />
System. (10 Periods)<br />
Unit - V: Discrete Fourier Transform (DFT): Introduction <strong>–</strong> Comparison of DFT and Fourier Series <strong>–</strong><br />
Properties of DFT - Derivation of FFT <strong>–</strong> Application of FFT. (10 Periods)<br />
Text Book:<br />
1. Rodger E. Ziemer, William H. Tranter and D. Ronald Fannain “Signals & Systems Continuous<br />
and Discrete”, Pearson Education 2002.<br />
Reference Books:<br />
1. M J Roberts, “Signals and Systems <strong>–</strong> Analysis using Transform Methods and MATLAB”,<br />
TataMcGraw-Hill, 2003.<br />
2. Simon Haykin, Barry Van Veen, “ Signals and Systems”, Wiley, 2 nd Edition, 2002<br />
3. Alan V Oppenheim and Alan S. Willsky, “Signals & Systems”, Second Edition, Prentice Hall<br />
India, 1997.<br />
D36 DIGITAL CIRCUITS AND TECHNIQUES<br />
Unit <strong>–</strong> I: Introduction TO Gates and Combinational Circuits: Basic digital circuits AND-OR-NAND-<br />
NOR-EX-OR <strong>–</strong> EX <strong>–</strong> NOR operations <strong>–</strong> universal building block construction using logic gates <strong>–</strong> Boolean<br />
Algebra <strong>–</strong> Simplification of Boolean functions <strong>–</strong> special forms of Boolean functions <strong>–</strong> min term (SOP)max<br />
term (POS)-completely and incompletely specified switching function -. K Map representation of<br />
Logic functions <strong>–</strong> Simplification of logic functions using K Map <strong>–</strong> Don’t care conditions <strong>–</strong> Five variable K<br />
Maps- Quine McClusky Method - Half and Full Adders <strong>–</strong> Half and Full Subtractors<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Sequential Circuits: Basic one bit memory cell- Flip Flop (RS, JK.D, T & Master slave JK) <strong>–</strong><br />
Excitation Table <strong>–</strong> clocked Flip Flop design <strong>–</strong> Edge triggered flip flops <strong>–</strong> NAND, NOR Gate Latch - Clock<br />
Signals and Clocked Flip-Flops: SRFF, JKFF, DFF - D Latch - Asynchronous Inputs- IEEE/ANSI<br />
Symbols- Flip-Flop Timing Considerations <strong>–</strong> Flip Flop Applications: Synchronization <strong>–</strong> Detecting<br />
Sequence <strong>–</strong> Serial Parallel transfer <strong>–</strong> Frequency Division and Counting <strong>–</strong> Schmitt Trigger <strong>–</strong> One Shot.<br />
(10<br />
Periods)<br />
Unit - III: Analysis of Synchronous Sequential Networks: Counter Design using D, SR and JKFF <strong>–</strong><br />
Structure Operation <strong>–</strong> Excitation and output Expressions <strong>–</strong> Transition Equation <strong>–</strong> Transition Table <strong>–</strong><br />
Excitation Table <strong>–</strong> State Tables and State Diagram <strong>–</strong> Mealy and Moore Model <strong>–</strong> Sequence Recognizer <strong>–</strong><br />
Algorithmic State Machine: ASM Chart for Sequential Recognizer <strong>–</strong> State Assignments <strong>–</strong> ASM Tables <strong>–</strong><br />
ASM Realization using Gates, MUX and PROM. Asynchronous Sequential Networks: Static and Dynamic<br />
Hazards <strong>–</strong> Detection and Elimination <strong>–</strong> Hazard Free Combinational Logic Networks <strong>–</strong> Essential hazards.<br />
(10 Periods)<br />
Unit <strong>–</strong>IV: Registers & Counters: Asynchronous (Ripple) Counters- Counters with MOD Numbers 2 ^N.<br />
IC Asynchronous Counters - Asynchronous Down Counter- Propagation Delay in Ripple Counters-<br />
Synchronous (Parallel) Counters- Synchronous Down and Up/Down Counters. Presettable Counters- The<br />
74LS193 - Decoding a Counter - Decoding Glitches - Cascading BCD Counters- Synchronous Counter<br />
Design.- State Machines.--Integrated-Circuit Registers - Parallel In/Parallel Out, Serial In/Serial Out,<br />
Parallel In/Serial Out and Serial In/Parallel Out Registers<br />
(10 Periods)
Unit<strong>–</strong>V: Integrated Circuit Logic Families: Digital IC Terminology- The TTL Logic Family, Data Sheets,<br />
Series Characteristics, Loading and Fan-Out - Other TTL Characteristics- MOS Technology- Digital<br />
MOSFET Circuits- CMOS Logic- CMOS Series Characteristics- Low-Voltage Technology- Open<br />
Collector/Open-Drain Outputs- Tristate (Three-State) Logic Outputs- High-Speed Bus Interface Logic- The<br />
ECL Digital IC Family- CMOS Transmission Gate (Bilateral Switch)- IC Interfacing- TTL Driving<br />
CMOS- CMOS Driving TTL- Analog Voltage Comparators: MSI Logic Circuits: Encoder <strong>–</strong> Decoder <strong>–</strong><br />
Multiplexer <strong>–</strong> Demultiplexer - Applications.<br />
(10 Periods)<br />
Text Book:<br />
Ronald J. Tocci, Neal S Widmer, “Digital Systems: Principles and Applications”, Prentice Hall of<br />
India, 9 st ed., 2003.<br />
Reference books:<br />
1. Donald D Givone, “ Digital Principles and Design”, Tata McGraw Hill , 2002<br />
2. Charles H Roth Jr, “ Fundamentals of Logic Design” Thomson Learning/ Brookescole, 5 th Edition,<br />
2004<br />
• Voltage and Power Amplifiers<br />
• Multistage Amplifiers<br />
• Tuned Amplifiers<br />
• Wideband Amplifiers<br />
• Feedback Amplifiers<br />
• R.C. Oscillators<br />
• LC Oscillators<br />
• Blocking Oscillators<br />
• Simulation using PSPICE<br />
D37 ANALOG ELECTRONICS LAB<br />
D38 LINEAR AND DIGITAL INTEGRATED CIRCUITS LAB<br />
• Op-amp Characteristics<br />
• Waveform generators<br />
• Sample and hold circuits<br />
• Comparators<br />
• Op-amp Oscillators<br />
• Realization of digital circuits<br />
• Flip-flops<br />
• Counters<br />
• Shift registers<br />
• Multiplexer and Demultiplexer<br />
• Code converters
• Simulation of Op-amp circuits and digital logic circuits using PSPICE<br />
D41 MATHEMATICS<strong>–</strong>III<br />
UNIT <strong>–</strong> I: Statistics & Probability: Linear Correlation and regression Curve fitting - Method of least<br />
squares - Continuous probability distributions - Normal, Gamma, Beta, Chi-square, Weibull, exponential<br />
& Hyper - Geometric distribution. (10 Periods)<br />
UNIT- II: Tests of Hypothesis: Hypothesis Testing - Testing hypothesis involving means & proportions -<br />
Comparison of small samples & large samples - t-test - z-test - Comparison of variances - F test - Test of<br />
goodness of fit - Chi-square test - Contingency table included.<br />
(10 Periods)<br />
UNIT <strong>–</strong> III: Random Processes: Classification - Stationary Process - Markov Process - Binomial Process<br />
- Poisson Process - Sine wave Process Ergodic Process - Renewal process.<br />
(10<br />
Periods)<br />
UNIT <strong>–</strong> IV: Calculus of variations: Functionals - Euler’s Equation - Functionals involving higher order<br />
derivatives - Several dependent variables <strong>–</strong> Geodesics - Isoperimetric problems - Rayleigh - Ritz method.<br />
(10 Periods)<br />
UNIT <strong>–</strong> V: Boundary value problems in ODE: Use of weighted residual techniques - Ritz method -<br />
Collocation method - Moment method - Least square technique - Galerkin’s method - Partition method -<br />
Use of Ritz finite element method in solving BVPs in ODE - Simple problems.<br />
(10 Periods)<br />
Text Books:<br />
1. T. Veerarajan, “Probability, statistics and random processes”, Tata McGraw Hill, 2002 ( For unit<br />
I, II & III)<br />
2. Grewal, B.S., “Higher Engineering Mathematics”, Thirty Sixth Edition, Khanna Publishers, Delhi,<br />
2001. ( For unit IV)<br />
3. M.K. Jain “Numerical Solution of Differential Equations” New Age International Publication.<br />
2000. ( For Unit V )<br />
D42 MICROPROCESSORS<br />
(Common with ECE, CSE and EEE branches)<br />
Unit I: INTEL 16 Bit Microprocessors: Register Organisation of 8086, Architecture, Physical Memory<br />
organization, I/O addressing capability, Special Processor Activities. 8086 Instruction Set and<br />
Assembler Directives: Addressing Modes of 8086, Instruction set of 8086, Assembler Directives and<br />
Operators. (10 Periods)<br />
Unit II: The Art of Assembly Language Programming with 8086: A Few Machine Level Programs<br />
using ALP 8086, Programming with an Assembler, Programming with an Assembler, Assembly Language<br />
example programs. Special Architectural Features and Related Programming: Introduction to Stack,<br />
Stack Structure of 8086, Interrupt and Interrupt Service Routines, Interrupt Cycle of 8086, Non-maskable<br />
Interrupt, Maskable Interrupt (INTR), Interrupt Programming ( Software Interrupts), MACROS<br />
(10 Periods)
Unit III: Basic Peripherals and their Interfacing with 8086: Interfacing I/O Ports, PPI (Prog Peripheral<br />
Interface (8255), Modes of operation of 8255. Special Purpose Programmable Peripheral Devices and<br />
their Interfacing: Prog Interval Timer (8253), Prog Interrupt Controller (8259) INTEL 32 Bit<br />
Microprocessors: 80386 DX <strong>–</strong>Salient Features of 80386 DX, Architecture of 80386, Register<br />
Organization of 80386, Addressing Modes, Data types of 80386, Real Address Mode of 80386,<br />
Protected Mode of 80386, Segmentation, Paging, Virtual 8086 Mode, Enhanced Instruction Set of 80386<br />
(10<br />
Periods)<br />
Unit IV: Exploiting Memory Hierarchy: Introduction, The Basics of Cache, Measuring and Improving<br />
Cache Performance, Virtual Memory, A common framework for Memory Hierarchies, The Pentium P4<br />
Memory hierarchy. Storage Networks and Other Peripherals : Introduction, Disk Storage and Dependability,<br />
Reliability and Availability, RAID, Buses and other Connections between Processors, Memory and<br />
I/O devices <strong>–</strong> Firewire 1394, Universal Serial Bus (USB 2.0), Line Printer Interface ( LPT parallel port ),<br />
Accelerated Graphics Port (AGP), The Buses and Networks of the Pentium 4, Memory controller (North<br />
Bridge) I/O controller (South Bridge) based Intel chipsets, Interfacing I/O devices to the Processor,<br />
Memory and Operating System, Designing an I/O systems, A Digital Camera. (10 Periods)<br />
Unit V: Accessing and Understanding Performance: Introduction, CPU Performance and its factors,<br />
Evaluating Performance, Two SPEC Benchmarks and the Performance of recent Intel Processors.<br />
Enhancing Performance of Pipelining: An overview of Pipelining, basic Issues involved in Pipelining:<br />
IA-32 based advanced Microprocessors: PENTIUM onwards: Salient features of PENTIUM, A few<br />
relevant concepts of Computer Architecture, System Architecture, Branch Prediction , Enhanced<br />
Instruction set of PENTIUM, MMX <strong>–</strong> multi media extension, Intel MMX architecture , MMX data types,<br />
wrap around and saturation arithmetic, MMX Instruction Set, Comparison of Pentium PRO, Pentium II,<br />
Pentium III and Pentium IV. (10 Periods)<br />
TEXT BOOK: A.K.RAY, K.M. BHURCHANDI <strong>–</strong> Advanced Microprocessors and Peripherals <strong>–</strong><br />
Architecture , Programming and Interface <strong>–</strong> Tata McGraw Hill <strong>–</strong> 2000 <strong>–</strong> Sixteenth reprint<br />
<strong>–</strong> UNIT I,II, III and V.<br />
REFERENCE BOOKS:<br />
1. DAVID A. PATTERSON, JOHN. L.HENNESSEY <strong>–</strong> Computer organization and Design -The<br />
Hardware / Software Interface <strong>–</strong> ELSEVIER <strong>–</strong> Morgan Kaufmann Publishers <strong>–</strong> 2005 <strong>–</strong> Third<br />
Edition. UNIT IV and V<br />
2. CARL HAMACHER, ZVONKO VRANESIC, SAFWAT ZAKY <strong>–</strong> Computer Organization -<br />
Mc Graw Hill International Student Edition - 2002 <strong>–</strong> Fifth edition<br />
D43 ANALOG COMMUNICATION<br />
Unit <strong>–</strong> I: Mathematical Foundation of Communication: Spectral Density <strong>–</strong> Autocorrelation <strong>–</strong> Cross<br />
correlation <strong>–</strong> Transmission of signals through linear systems <strong>–</strong> Hilbert Transform <strong>–</strong> Pre envelope <strong>–</strong> Band<br />
pass signals and systems <strong>–</strong> Phase and group delay <strong>–</strong> Random variables <strong>–</strong> Random process <strong>–</strong> Stationary <strong>–</strong><br />
Mean, Correlation and covariance function <strong>–</strong> Time averages and periodicity- Transmission of Random<br />
processes through a linear filter <strong>–</strong> Gaussian process.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Amplitude Modulation: Amplitude modulation <strong>–</strong> Generation <strong>–</strong> Demodulation DSBSC<br />
generation and detection <strong>–</strong> Quadrate carrier multiplexing <strong>–</strong> SSB generation and detection <strong>–</strong> Vestigial<br />
sideband modulation <strong>–</strong> Frequency translation <strong>–</strong> Frequency Division Multiplexing.<br />
(10 Periods)
Unit <strong>–</strong> III: Angle Modulation: Phase modulation and frequency modulation <strong>–</strong> Narrow band and wideband<br />
frequency modulation <strong>–</strong> Multi tone FM waves <strong>–</strong> Transmission bandwidth of FM waves <strong>–</strong> Generation and<br />
demodulation of FM waves <strong>–</strong> Response of linear filters to FM waves - Non linear effects in FM systems -<br />
FM threshold effect <strong>–</strong> Preemphasis and deemphasis. (10 Periods)<br />
Unit <strong>–</strong> IV : Pulse Analog Modulation: Low pass sampling theorem <strong>–</strong> Bandpass sampling theorem <strong>–</strong><br />
Sampling of bandpass signals- Practical aspect of sampling <strong>–</strong> TDM <strong>–</strong> pulse amplitude modulation <strong>–</strong> Pulse<br />
time modulation <strong>–</strong> spectra of pulse analog modulation system. (10 Periods)<br />
Unit <strong>–</strong> V: Noise in CW modulation: Noise <strong>–</strong> Narrowband noise <strong>–</strong> Envelope of sine wave plus SNR for<br />
coherent reception with DSBSC Modulation, SSB Modulation <strong>–</strong> Noise in AM receivers using envelope<br />
detection <strong>–</strong> Noise in FM reception - Noise in pulse modulation systems.<br />
(10 Periods)<br />
Text Books:<br />
1. Simon Haykin, “Communication Systems”, Wiley Eastern, Fourth Edition, 2001.<br />
Reference books:<br />
1. Simon Haykin, “Communication Systems”, Wiley Eastern, Third Edition, 1996.<br />
2. Leon W. Couch II, “ Digital and Analog Communication Systems”, Prentice Hall, 1997<br />
3. Sam Shanmugam, “Digital and Analog Communication Systems”, 2 nd ed, John Wiley, 1992.<br />
4. B. Carlson, “Introduction to Communication systems”, 3 rd Edition, McGraw Hill, 1989.<br />
D44 <strong>ENGINEERING</strong> ELECTROMAGNETICS<br />
Unit I: Electrostatic fields: Coulomb’s Law and Field Intensity-Electric Fields due to Continuous Charge<br />
distribution- Electric Flux Density <strong>–</strong> Gauss Law - Applications of Gauss’s Law <strong>–</strong>Electric Potential <strong>–</strong><br />
Relationship between E and V - An electric dipole and flux lines-Energy Density in Electrostatic fields.<br />
(10 Periods)<br />
Unit II: Electric Fields in Material Space: Properties of Materials <strong>–</strong> Convection and Conduction<br />
Currents <strong>–</strong> Conductors <strong>–</strong> Dielectric Constant & Strength <strong>–</strong> Linear, Isotropic, and Homogeneous Dielectrics<br />
<strong>–</strong> Continuity Equation and Relaxation Time <strong>–</strong>Boundary Conditions. Electrostatic Boundary <strong>–</strong>Value<br />
Problems: Introduction <strong>–</strong> Poisson’s and Laplace’s Equations <strong>–</strong> General Procedure for solving Poisson’s or<br />
Laplace’s equation <strong>–</strong> Resistance and capacitance.<br />
(10 Periods)<br />
Unit III: Magnetostatic Fields: Biot -Savart’s Law <strong>–</strong> Ampere’s Circuit Law <strong>–</strong> Applications of Ampere’s<br />
Law- Magnetic Flux Density <strong>–</strong> Maxwell’s Equation for static EM Fields <strong>–</strong> Magnetic Scalar and Vector<br />
Potentials-derivation of Biot <strong>–</strong> Savart’s Law and Ampere’s law. Magnetic Forces, Materials, and devices<br />
: Forces due to magnetic fields <strong>–</strong> Magnetic Torque and moment <strong>–</strong> Magnetic dipole <strong>–</strong> Magnetization in<br />
materials <strong>–</strong> Magnetic boundary conditions <strong>–</strong> Inductors and Inductances- Magnetic energy.<br />
(10 Periods)<br />
Unit IV: Maxwell’s Equations:Faraday’s law <strong>–</strong> transformer and motional EMFs <strong>–</strong> Displacement current <strong>–</strong><br />
Maxwell’s equations in final forms <strong>–</strong> Time varying potentials <strong>–</strong> Time harmonics fields. Electromagnetic<br />
Wave propagation: Waves in general -wave propagation in lossy dielectrics -plane waves in lossless<br />
dielectrics <strong>–</strong> plane waves in free space <strong>–</strong> plane waves in good conductors <strong>–</strong> power and the poynting vector
<strong>–</strong> Reflection of a plane wave at normal incidence - Reflection of a plane wave at oblique incidence.<br />
(10 Periods)<br />
Unit V Waveguides: Rectangular waveguides <strong>–</strong> Transverse Magnetic (TM) Modes - Transverse Electric<br />
(TE) Modes- Wave propagation in guide <strong>–</strong> Power transmission and Attenuation <strong>–</strong> Wave guide current and<br />
mode Excitation <strong>–</strong> Wave guide Resonators General solutions for TEM ,TE and TM waves-Attenuation due<br />
to dielectric losses-Parallel plate wave guides <strong>–</strong>TEM modes, TE mode, TM mode-Rectangular waveguide<br />
Circular wave guide-Coaxial Lines.<br />
(10 Periods)<br />
Text Book:<br />
Matthew N.O.Sadiku, “Elements of Electromagnetics” Third Edition, Oxford University Press,<br />
2003<br />
References:<br />
3. N.Narayana Rao, “Engineering Electromagnetics” Fifth Edition, Prentice Hall, 1999.<br />
4. Fawwaz T. Ulaby, "Fundamentals of Applied Electromagnetics", Prentice Hall, 1997.<br />
5. Plonus, “ Applied Electromagnetics”, McGraw Hill, 1992<br />
D45 DIGITAL SIGNAL PROCESSING<br />
Unit <strong>–</strong> I: FIR Filtering and Convolution: Block Processing Methods: Convolution, Direct Form,<br />
Convolution Table, LTI Form, Matrix Form, Flip and Slide Form, Transient and Steady State Behavior,<br />
Convolution of Infinite Sequences <strong>–</strong> Overlap Add Block Convolution <strong>–</strong> Sample Processing Methods <strong>–</strong> Fast<br />
Convolution. (10 Periods)<br />
Unit <strong>–</strong> II: Transfer Functions: Equivalent Descriptions of Digital Filters <strong>–</strong> Transfer Functions <strong>–</strong><br />
Sinusoidal Response <strong>–</strong> Pole Zero Designs <strong>–</strong> Deconvolution, Inverse Filters and Stability <strong>–</strong> Digital Filter<br />
Realizations: Direct Form, Canonical Form, Cascade Form, Cascade to Canonical, Hardware Realization<br />
and Circular Buffers <strong>–</strong> Quantization Effects in Digital Filters.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: FIR Filter Design: Window Method: Ideal Filters, Rectangular Window, Hamming Window <strong>–</strong><br />
Kaiser Window for Filter Design and Spectral Analysis <strong>–</strong> Frequency Sampling Method <strong>–</strong> Problems.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: IIR Filter Design: Bilinear Transformation <strong>–</strong> First Order Lowpass and high pass filters <strong>–</strong><br />
Second-Order peaking and Notching Filters <strong>–</strong> Parametric Equalizer Filters <strong>–</strong> Comb Filters <strong>–</strong> Higher Order<br />
Filters <strong>–</strong> Problems.<br />
(10 Periods)<br />
Unit - V: Signal Processing Applications: Digital Waveform Generators: Sinusoidal Generators, Periodic<br />
Waveform Generators, Wavetable Generators <strong>–</strong> Digital Audio Effects <strong>–</strong> Noise Reduction and Signal<br />
Enhancement.<br />
(10 Periods)<br />
Text Book:<br />
1. Sophocles J. Orfanidis, “Introduction to Signal Processing”, Prentice Hall, 1996.<br />
Reference Books:
1. Antoniou, A. “Digital filters - Analysis, Design and Applications”, McGraw-Hill<br />
International Editions, Electrical Engineering series, 2nd. ed., 1993,<br />
2. Sanjit K. Mitra, “Digital Signal Processing <strong>–</strong> A Computer based Approach”, Tata McGraw<br />
Hill, 2001.<br />
3. Vinay K Ingle and John G Proakis, “ Digital Signal Processing using MATLAB”, Brroks<br />
Cole, 1999<br />
4. John G Proakis, “Digital Signal Processing: Principles, Algorithms and Applications”,<br />
Pearson Education, 1995.<br />
5. Brian D O Anderson and John B Moore, “ Optimal Filtering”, Dover Publications, 2005<br />
D46 DIGITAL LOGIC WITH VHDL DESIGN<br />
UNIT I: Design Concepts : Digital Hardware - Standard Chips Programmable Logic Devices <strong>–</strong> Custom <strong>–</strong><br />
Designed Chips <strong>–</strong> Design Process <strong>–</strong> Design of Digital Hardware <strong>–</strong> Basic Design Loop <strong>–</strong> Design of a Digital<br />
hardware Unit <strong>–</strong> Introduction to CAD tools <strong>–</strong> Design - Entry Synthesis <strong>–</strong> Functional Simulation <strong>–</strong><br />
Introduction to VHDL <strong>–</strong> Representation of Digital Signals in VHDL <strong>–</strong> Writing Simple VHDL Code <strong>–</strong> How<br />
Not to Write VHDL Code. (10 Periods)<br />
UNIT II: Optimized Implementation of Logic Functions : Karnaugh Map <strong>–</strong> Strategy for Minimization <strong>–</strong><br />
Minimization of Product <strong>–</strong> of - Sums Forms <strong>–</strong> Incompletely Specified Functions <strong>–</strong> Multiple <strong>–</strong> output<br />
Circuits <strong>–</strong> NAND and NOR Logic Networks <strong>–</strong> Multilevel Synthesis <strong>–</strong> Analysis of Multilevel Circuits <strong>–</strong><br />
Cubical Representation <strong>–</strong> Minimization using Cubical Representation <strong>–</strong> Practical Considerations <strong>–</strong> CAD<br />
Tools. (10 Periods)<br />
UNIT III: Combinational Circuit Building Blocks : Multiplexers <strong>–</strong> Decoders <strong>–</strong> Encoders <strong>–</strong> Code<br />
Converters <strong>–</strong> Arithmetic Comparison Circuits <strong>–</strong> VHDL for Combinational Circuits-Assignment statements-<br />
Selected signal assignment-Conditional signal assignment-Generate statements-Process statement-Case<br />
statement. (10 Periods)<br />
UNIT IV: Flip-Flops, Registers and Counters : Basic Latch <strong>–</strong> Gated SR Latch - Gated SR Latch with<br />
NAND Gates <strong>–</strong> GATED D Latch <strong>–</strong> Master-Slave And Edge <strong>–</strong> Triggered D Flip-Flops <strong>–</strong> T Flip-Flop <strong>–</strong> JK<br />
Flip-Flop <strong>–</strong> Summary Of Terminology- Resisters <strong>–</strong> Counters <strong>–</strong> Using Storage Elements With CAD Tools <strong>–</strong><br />
Using Registers and Counters with CAD Tools <strong>–</strong> Design Examples.<br />
(10 Periods)<br />
UNIT V: Synchronous Sequential Circuits: Basic Design Steps <strong>–</strong> State Assignment Problem <strong>–</strong> Mealy<br />
State Model <strong>–</strong> Design of FSM Using CAD tools VHDL Code for Moore-type FSMs- Synthesis of VHDL<br />
Code <strong>–</strong> Simulating and Testing the Circuit <strong>–</strong> Serial Adder Example <strong>–</strong> State Minimization <strong>–</strong> Counter Design<br />
<strong>–</strong> FSM as an arbiter Circuit <strong>–</strong> ASM Charts. (10 Periods)<br />
Text Book:<br />
1. Stephen Brown and Zvonko Vranesic, “Fundamentals of Digital Logic with VHDL Design” Tata<br />
McGraw Hill edition, 2001.<br />
Reference Books:<br />
1. Navabi, “VHDL Modelling”, McGraw Hill, 1997<br />
2. J.Bhaskar, “VHDL Primer”, Pearson Education, 1999.<br />
D47 ANALOG COMMUNICATION LAB
• Amplitude modulation & Detection.<br />
• Frequency modulation & Detection.<br />
• DSB-SC Generation & Detection<br />
• SSB Generation & Detection<br />
• Automatic Gain Control.<br />
• Voltage controlled oscillator<br />
• Narrow Band Noise Generation<br />
• Pulse Analog modulation (PAM,PWM and PDM)<br />
• Study of PLL characteristics<br />
• Frequency Response of equalizer<br />
• Digital Phase detector.<br />
• Simulation using MATLAB<br />
D48 SIGNALS AND SYSTEMS LAB<br />
• Generation of Standard Discrete Time Signals<br />
• Generation of Random Sequences<br />
• Linear Time Invariant systems <strong>–</strong> Properties<br />
• Z-transform <strong>–</strong> Discrete time structures<br />
• Frequency Domain Analysis (DTFT, DFT)<br />
• Sampling and Reconstruction<br />
• Digital Filter Design (IIR and FIR)<br />
D51 COMPUTATIONAL METHODS<br />
UNIT I: Curve fitting and theory of equations: Empirical laws and curve fitting <strong>–</strong> linear law <strong>–</strong> method<br />
of group averages <strong>–</strong> principle of Least squares <strong>–</strong> fitting straight line, parabola, exponential curve <strong>–</strong> method<br />
of moments - theory of equations<strong>–</strong> Relation between the roots and coefficients of the polynomial equation<br />
<strong>–</strong> equations with real coefficients and imaginary roots <strong>–</strong> equations with rational coefficients and irrational<br />
roots <strong>–</strong> symmetric functions of the roots <strong>–</strong> Transformation of equations <strong>–</strong> Reciprocal equations.<br />
(10 periods)<br />
UNIT II: Solution of equations: Solution of numerical algebraic and transcendental equations- The<br />
Bisection method <strong>–</strong> Iteration method <strong>–</strong>Regula Falsi method <strong>–</strong> Newton-Raphson method <strong>–</strong> Horner’s method<br />
<strong>–</strong> Solution of Simultaneous Linear Algebraic equations-Gauss elimination method- Gauss-Jordan method<br />
<strong>–</strong> Crout’s method <strong>–</strong> Gauss Jacobi method-Gauss Seidel method <strong>–</strong> Relaxation method.<br />
(10 periods)<br />
UNIT III : Difference calculus: Finite differences <strong>–</strong> Forward , backward and central difference operator <strong>–</strong><br />
shifting operator <strong>–</strong> Properties and Relation between operators<strong>–</strong> Interpolation <strong>–</strong> Newton’s forward and<br />
backward difference interpolation formula <strong>–</strong> Gauss forward and backward difference interpolation formula<br />
<strong>–</strong>- Bessel’s, Laplace and Everett formula.<br />
(10 periods)<br />
UNIT IV : Interpolation, numerical differentiation and integration: Interpolation with unequal<br />
intervals - Divided differences <strong>–</strong> Newton’s divided difference formula <strong>–</strong> Lagrange’s interpolation formula
<strong>–</strong> inverse interpolation - Numerical differentiation - Newton’s forward and backward differentiation<br />
formula <strong>–</strong> Numerical Integration<strong>–</strong> The trapezoidal rule <strong>–</strong> Simpson’s 1/3 rd and 3/8 th rule <strong>–</strong> Difference<br />
equations <strong>–</strong> Solution of Linear homogeneous difference equation with constant coefficients.<br />
(10 periods)<br />
UNIT V: Numerical solution of differential equation: Numerical solutions of ordinary differential<br />
equations <strong>–</strong>Taylor series method <strong>–</strong> Picards method <strong>–</strong> Euler’s methods <strong>–</strong> Fourth order Runge Kutta method<br />
<strong>–</strong>Milne’s and Adam’s Predictor <strong>–</strong> Corrector methods <strong>–</strong> Numerical solution of partial differential equations<br />
<strong>–</strong> classification of partial differential equations <strong>–</strong> Solution of elliptic equation by Leibmann’s method <strong>–</strong><br />
Solution of parabolic equation by Bender- Schmidt method <strong>–</strong> Solution of hyperbolic equation.<br />
(10 periods)<br />
MATLAB : Tool Kits-The course content will be augmented by the usage of Mat Lab tool box.<br />
Text Book :<br />
• Curtis F. Gerald, Patrick O. Wheatly, “Applied Numerical Analysis”, Sixth Edition, Pearson<br />
Education, New Delhi, 2002.<br />
Reference Books:<br />
1. John H. Mathews, Kurtis D.Fink., “Numerical Methods using MATLAB”, Prentice Hall, 1998.<br />
2. Rober J. Schilling, Sandra L. Harries, “Applied Numerical Methods for Engineers using<br />
MATLAB and C”, Thomson Brooks / Cole, 1999.<br />
3. Jain. M.K, Iyengar, S.R.K, Jain, R.K, “Numerical Methods for Scientific and Engineering<br />
Computation”, Fourth Edition, New Age International Publishers, New Delhi, 2003.<br />
4. Sastry, S.S, “Introductory Methods of Numerical Analysis”, Prentice Hall of India, 2001.<br />
5. Kandasamy. P, Thilagavathy. K and Gunavathy.K, “Numerical Methods”, S.Chand and<br />
Company Ltd, New Delhi, 2003.<br />
D52 EMBEDDED MICROCONTROLLERS<br />
Unit-I: Introduction: The 8051 architecture-8051 microcontroller hardware-Input/output-ports and<br />
circuits-External memory-counters and timers-serial input/output-Interrupts.<br />
(10 periods)<br />
Unit-II: Moving Data & Instruction: Moving data-introduction - Addressing modes-external data movescode<br />
memory-Read only data moves-Push& pop coding <strong>–</strong>Data exchange <strong>–</strong> logical operation-Arithmetic<br />
operation-Jump& call instructions.<br />
(10 periods)<br />
Unit-III: 8051 microcontroller design/application: A Microcontroller design-Testing the design-Timing<br />
subroutines-lookup tables for the 8051.Lead per key keyboard interfacing- LCD interfacing-Multiple<br />
interrupts.<br />
(10 periods)<br />
Unit-IV: PIC Microcontroller: CPU architecture and instruction sets: Hardware architecture and<br />
pipelining <strong>–</strong>program memory consideration - Register file structure and Addressing modes-CPU register<br />
-Instruction set-Loop time subroutine, Timer2 and Interrupts: Timer2 use-interrupt logic-Timer2 Scalar<br />
Initialization. External interrupts and Timers: Timer0 Compare/capture mode -Timer1/CCP
programmable period scalar. Timer1 and sleep mode- PWM O/P <strong>–</strong> Port B change interrupts.<br />
(10 periods)<br />
Unit-V: I2C bus for Peripheral chip access: I2C Bus operation-subroutine-DAC output-serial EEPROM-<br />
Temperature sensor. Analog to Digital converter: ADC characteristics and use UART: Baud rate<br />
selection-UART Data handling circuitry- UART initialization. Assembler/Compiler and Interpreter:<br />
Elements of assembly Language programming- a simple assembly scheme <strong>–</strong> Pass structure for assemblersa<br />
single/two pass assembler for PC <strong>–</strong> Compilers-Aspects of compilation- Memory allocation- compilation<br />
of control structures- code optimization-Interpreters.<br />
(10 periods)<br />
Text books:<br />
1. Kennath J.Ayala, “The 8051 Microcontroller Architecture, Programming and Application”, 2 nd<br />
edition (Unit I,II,III)<br />
2. John B Pitman, “Design with PIC Microcontrollers”, Pearson Education Asia, Low Price edition<br />
2002.(Unit IV,V)<br />
3. D.M.Dhamdhere, “Systems Programming and Operating Systems”, Tata McGraw Hill-Second<br />
Revised Edition 1997. (Unit V)<br />
Reference Books:<br />
1. A.K.RAY, K.M.BHURCHANDI, “Advanced Microprocessors and Peripherals- Architecture,<br />
Programming and Interface”, Tata Mc Graw Hill-2000 16 th Reprint .<br />
2. Myke Predko, “Programming and Customizing the 8051 Microcontroller”, Tata McGrawHill <strong>–</strong><br />
2000<br />
3. 8051 Intel Data books Year 1998.<br />
4. Micro chip/PIC Microcontroller Data Books-2004.<br />
D53 DIGITAL COMMUNICATION<br />
Unit <strong>–</strong> I: Source coding: Information, Entropy and uncertainty - source coding theorem- Huffman coding<br />
<strong>–</strong> Discrete memoryless channels <strong>–</strong> mutual information <strong>–</strong> channel capacity <strong>–</strong> channel coding theorem <strong>–</strong><br />
differential entropy & mutual information for continuous Ensembles- Channel capacity Theorem.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Channel coding: Error control coding <strong>–</strong> Rationale for coding and types of codes <strong>–</strong>Linear block<br />
codes <strong>–</strong> cyclic codes <strong>–</strong> convolutional codes <strong>–</strong> Maximum Likelihood Decoding of convolutional codes <strong>–</strong><br />
Distance properties of convolutional code <strong>–</strong> Sequential decoding of convolutional codes <strong>–</strong> Trellis codes <strong>–</strong><br />
Applications.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Waveform coding Technique and Baseband Shaping: Pulse Code Modulation, Noise<br />
considerations in PCM systems, Robust Quantization, Delta Modulation, Delta-sigma modulation,<br />
Differential pulse code modulation <strong>–</strong> Intersymbol Interference, Nyquist criterion, correlative level coding <strong>–</strong><br />
Eye Pattern<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Detection and Estimation: Pass band Transmission model, Gram Schmidt orthogronalization<br />
procedure, Geometric Interpretation of signals, Response of bank of correlators to a noisy input, Coherent
detection of signals in noise, Probability of error correlation Receiver, Matched Filter - Detection of<br />
signals with unknown phase<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Digital Modulation Techniques: Coherent binary PSK, Coherent binary FSK, Coherent<br />
QPSK, Coherent MSK, Noncoherent orthogonal modulation, Noncoherent Binary FSK, Differential PSK<br />
<strong>–</strong> Comparison of binary and Quarternary modulation schemes - Pseudo noise sequences, A notion of<br />
spread spectrum direct sequence spread spectrum, Signal space dimensionality and processing Gain,<br />
Probability of error, Frequency Hop Spread Spectrum, Code Division Multiplexing.<br />
(10 Periods)<br />
Text Book:<br />
Simon Haykin, “Digital Communications”, John Wiley & Sons, Pvt. Ltd., 2001<br />
Reference Books:<br />
1. John G. Proakis, “ Digital Communication”, Tata McGraw Hill 1995<br />
2. Bernard Sklar, “Digital Communications: Fundamentals and Applications”, 2 nd Edition, Prentice<br />
Hall, 2001<br />
3. John R Barry, Edward Lee and David G. Messerschmitt, “Digital Communication”, 3 rd Edition.<br />
Springer, 2003.<br />
D54 ANTENNA AND WAVE PROPAGATION<br />
Unit I : Antenna fundamentals and Parameters: Introduction -Types of antennas-Radiation mechanismcurrent<br />
distribution-Radiation pattern-power density-radiation intensity-directivity-gain-antenna efficiencybeamwidth<br />
--bandwidth-polarization-radiation efficiency-effective aperture-Friss equation and radar range<br />
equation-antenna temperature-Far field radiation-duality theorem.<br />
(10 Periods)<br />
Unit II: Linear wire and Loop antennas: Linear wire antenna- Infinitesimal dipole-small dipole-finite<br />
length dipole- Half wavelength dipole, Loop antenna- Circular loop antenna of constant current-ferrite<br />
loop.<br />
(10 Periods)<br />
Unit III: Arrays- Planar and Linear: Two-element array - N element linear array-uniform spacing and<br />
amplitude-broadside, end-fire, phased array-N element linear array directivity and characteristics-N<br />
element linear array-uniform spacing and non-uniform amplitude-planar array-circular array.<br />
(10 Periods)<br />
Unit IV: Traveling wave and Broadband Antennas: Folded dipole, V antenna, Rhombic antenna,<br />
Helical antenna, Yagi-uda array of linear elements- Spiral antenna-Log periodic antenna. Concept of Horn<br />
antenna-Parabolic reflector, Antenna measurement- radiation pattern, far and near field measurement-<br />
Anechoic chamber.<br />
(10 Periods)<br />
Unit V: Wave propagation: Fundamental equation for free space propagation—modes of propagationstructure<br />
of atmosphere and characteristics-sky wave propagation-effects of Earths magnetic field-<br />
Application of Bartree magnetic ionic formula-Hartree formula-effective dielectric constant and<br />
conductivity of the ionosphere and collision frequency <strong>–</strong>lowest Usable frequency-Skip distance-Optimum<br />
working frequency-ionospheric Abnormalities <strong>–</strong> Multi hop propagations - space wave propagation -Duct<br />
propagation.
(10 Periods)<br />
Text Books:<br />
1. Constantine A,Balanis “Antenna Theory: Analysis and Design”, John Wiley Publishers, 2003.<br />
(Unit I - IV)<br />
2. K.D.Prasad “Antenna and Wave Propagation”, Satya prakashan, 1996. (Unit V)<br />
Reference Books:<br />
1. John D.Kraus "Antennas”, Tata Mc Graw Hill, 2002<br />
2. H.Griffiths, J.Encianas, A.Papiernik & Serge Drabowitch “Modern Antennas”, Chapman & Hall,<br />
1998.<br />
D55 CONTROL SYSTEMS<br />
UNIT- I:- Linear control systems - Open loop, closed loop - Servo mechanism - Sampled data and digital<br />
control systems - Multivariable control systems - Mechanical , Translational and Rotational systems -<br />
Transfer Function - Analogy with electric systems - Simple thermal and hydraulic systems - Effects of feed<br />
back - Control system components - AC and DC Servomotor - Stepper motor - Synchros.<br />
(10 Periods)<br />
UNIT <strong>–</strong> II:-Transfer function - Block diagram - Signal flow graph; Time domain analysis - Standard test<br />
signals - First and second order system’s response for different input signals; Type and order of the<br />
systems; Static and generalized error coefficients.<br />
(10 Periods)<br />
UNIT III: Stability <strong>–</strong> Routh - Hurwitz stability criterion <strong>–</strong> Construction of root locus diagram <strong>–</strong> Root<br />
Contours <strong>–</strong> Relative stability.<br />
(10 Periods)<br />
UNIT IV: Frequency Response - Correlation between time and frequency domain analysis, Polar plots,<br />
Bode plots, Experimental determination of transfer function, Constant M and N circles - Nichol's chart -<br />
Nyquist stability criterion <strong>–</strong> Relative stability.<br />
(10 Periods)<br />
UNIT V: State and state variables - Physical, phase and canonical variables - state equation -State<br />
transition matrix and its solution - Eigen values and vectors - Controllability - Observability.<br />
(10 Periods)<br />
Text Book:<br />
I.J.Nagrath and M.Gopal, “Control Systems Engineering’, Wiley Eastern Ltd., 1993.<br />
Reference Books:<br />
1. K. Ogata, “Modern Control Engineering”, Prentice Hall of India Pvt. Ltd., 1982.<br />
2. J.D. Azzo and C.H. Houpis, “Linear control system analysis and design”, McGraw Hill Book Co.,<br />
1988.<br />
D56 CMOS VLSI SYSTEMS AND TOOLS<br />
Unit I : Overview of VLSI: Complexity and Design <strong>–</strong> MOSFETs as switches <strong>–</strong> Basic Logic Gates in<br />
CMOS <strong>–</strong> Complex Logic Gates in CMOS <strong>–</strong>Transmission Gate circuits - CMOS Layers - Designing FET<br />
Arrays.<br />
(10 Periods)
Unit II : MOS Physics: nFET Current-Voltage Equations <strong>–</strong> The FET RC Model <strong>–</strong> pFET Characteristics <strong>–</strong><br />
DC characteristics of CMOS Inverter <strong>–</strong> Inverter Switching Characteristics <strong>–</strong> Power Dissipation <strong>–</strong><br />
Transmission Gates and Pass Transistors.<br />
(10 Periods)<br />
Unit III : CMOS Circuits: Pseudo-NMOS <strong>–</strong> Tri-State Circuits <strong>–</strong> Clocked CMOS <strong>–</strong> Dynamic CMOS<br />
Logic circuits <strong>–</strong> Interconnect Delay Modelling - Crosstalk <strong>–</strong> Floorplaning and Routing <strong>–</strong> Input and Output<br />
circuits <strong>–</strong> Power distribution and consumption <strong>–</strong> Low Power Design Considerations<br />
(10 Periods)<br />
Unit IV: Clocking and Testing: CMOS clocking styles <strong>–</strong> Pipelined systems <strong>–</strong> System Design<br />
Considerations <strong>–</strong> Reliability and Testing of VLSI circuits <strong>–</strong> General Concepts <strong>–</strong> CMOS testing <strong>–</strong> Test<br />
Generation Methods.<br />
(10 Periods)<br />
Unit V: VLSI Systems Specifications and Components : Systems Specifications <strong>–</strong> Structural Gate Level<br />
Modeling <strong>–</strong> Switch Level Modeling <strong>–</strong> Design Hierarchy <strong>–</strong> Behavioral and RTL Modeling <strong>–</strong> Multiplexer <strong>–</strong><br />
Binary Decoders <strong>–</strong> priority Encoders <strong>–</strong> Latches <strong>–</strong> Flip Flops and Registers <strong>–</strong> Arithmetic Circuits in CMOS<br />
VLSI: Adders and Multipliers<br />
(10 Periods)<br />
Text Book:<br />
1. John P.Uyemura, “Introduction to VLSI Circuits and systems”, John Wiley & Sons, 2003.<br />
2. Sjohoem & Lindh, "VHDL for Designers”, Prentice Hall, 1997.<br />
Reference book:<br />
1. Neel H.E.Weste Eshraghian, “Principles of CMOS VLSI Design”, Addison Wesley, 1999<br />
2. Keng, Lable Bick, “CMOS Digital Integrated Circuits”, Tata McGraw Hill,1999.<br />
3. Smith, “Application Specific Integrated Circuits”, Addison Wesley, 1997.<br />
4. Mukherjee, “Introduction NMOS and CMOS VLSI System Design”, PH 1986.<br />
5. Douglas A.Pucknell & K.Eshranghian, “Basic VLSI Design”, PHI 3 rd edition 1994.<br />
D57 DIGITAL COMMUNICATION LABORATORY<br />
• Pulse code modulation Techniques<br />
• Delta Modulation<br />
• ASK Transmission and Reception<br />
• PSK Generation and Detection<br />
• Quadrature phase shift keying<br />
• Differential phase shift keying<br />
• Uniform Quantizer<br />
• Matched filter.<br />
• Gold Sequence Generation.<br />
• Scrambler & un scrambler<br />
• Cyclic codes<br />
• Convolutional Codes<br />
• Direct sequence spread spectrum<br />
• BER Analysis of Digital Modulation Schemes using MATLAB<br />
D58 MICROPROCESSOR AND MICROCONTROLLER LAB
Microprocessor Experiments (8086 Using MASM)<br />
• 16 bit arithmetic operation.<br />
• Code conversion.<br />
• BIOS service program.<br />
• Sorting algorithm.<br />
• Multibyte Packed BCD addition & subtraction<br />
Microcontroller Experiments (8051)<br />
• Logic controller interface.<br />
• Traffic Light Interface.<br />
• ADC/DAC Interface.<br />
• Stepper motor Interface.<br />
• Digital Clock/keyboard interfacing.<br />
• Timers-Serial interface using interrupts.<br />
• Experiments using Keil Cross C compiler.<br />
Microcontroller Experiments (PIC using Cross C compilers)<br />
• PIC Binary /BCD counter<br />
• I/O Controller Interface.<br />
D61 COMMUNICATION SYSTEM DESIGN<br />
Unit I: Pulse Amplitude Modulation: Baseband PAM - One Shot Minimum Distance Receiver -<br />
Minimum Distance Sequence Detection - Performance Analysis in AWGN - Orthogonal Modulation -<br />
Orthogonal PAM - Modulation with Memory.<br />
(10 Periods)<br />
Unit II: Advanced Modulation and Detection: - M-ary Modulation - Probability of Error Bandwidth and<br />
Signal Dimensionality - Capacity and Modulation -Detection of a Single Real-Valued Symbol - Detection<br />
of a Signal Vector - Known Signals in Gaussian Noise - ML Sequence Detection with the Viterbi<br />
Algorithm - A Posteriori Probability Detection with BCJR - Symbol Error Probability for MLSD -<br />
Incoherent Detection - Shot Noise Signal with Known Intensity.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Equalization: Optimal zero-forcing Equalization <strong>–</strong> Generalized Equalization methods <strong>–</strong><br />
Fractionally spaced Equalizer <strong>–</strong> Transversal filter equalizers <strong>–</strong> ISI & channel capacity <strong>–</strong> Adaptive<br />
equalization <strong>–</strong> constrained complexity Equalizers <strong>–</strong> Adaptive Linear Equalizer <strong>–</strong> Adaptive DFE -<br />
Adaptive Fractionally spaced equalizer <strong>–</strong> pass band Equalization.<br />
(10 Periods)<br />
Unit IV: Error Control and Signal Space Coding: Capacity Penalty of Binary coding - Binary Linear<br />
Block codes - Convolutional Codes - Low Density Parity-Check Codes - Turbo Codes Signal Space<br />
Coding: Multidimensional Signal Constellations - Trellis Codes - Coset Codes <strong>–</strong> Signal Space Coding and<br />
ISI.<br />
(10 Periods)
Unit <strong>–</strong> IV:: Synchronization <strong>–</strong> Ideal continuous Time PLL <strong>–</strong> discrete Time PLL <strong>–</strong> Phase detectors <strong>–</strong><br />
variations on a theme: VCOs <strong>–</strong> carrier Recovery <strong>–</strong>Decision directed carrier recovery <strong>–</strong> Power of N carrier<br />
recovery. Timing recovery <strong>–</strong> spectral line methods <strong>–</strong> MMSE timing Recovery and approximations <strong>–</strong> Baud<br />
rate timing recovery <strong>–</strong> Accumulation of timing Jitter.<br />
(10 Periods)<br />
Text Books:<br />
John R Barry, Edward Lee and David G. Messerschmitt, “Digital Communication”, 3 rd Edition.<br />
Springer, 2003.<br />
Reference Books:<br />
4. John G. Proakis, “ Digital Communication”, Tata McGraw Hill 1995<br />
5. Bernard Sklar, “Digital Communications: Fundamentals and Applications”, 2 nd Edition, Prentice<br />
Hall, 2001<br />
Simon Haykin, “Digital Communications”, John Wiley & Sons, Pvt. Ltd., 2001<br />
D62 SYSTEMS PROGRAMMING AND OPERATING SYSTEMS<br />
UNIT I :Assemblers, Compilers and Interpreters: Elements of Assembly language programming <strong>–</strong> a<br />
simple assembly scheme <strong>–</strong> Pass structure for assemblers <strong>–</strong> Design of Two pass assemblers <strong>–</strong> A single pass<br />
Assembler for IBM PC <strong>–</strong> Compilers <strong>–</strong> Aspects of Compilation <strong>–</strong> Memory Allocation <strong>–</strong> Compilation of<br />
Control Structures <strong>–</strong> Code Optimization <strong>–</strong> Interpreters<br />
(10 Periods)<br />
UNIT II: Introduction to OS: OS as an extended machine - as an Resource Manager - generation of OS -<br />
Operating System concepts<strong>–</strong> Different types of OS - Operating System Services <strong>–</strong> System Calls <strong>–</strong> System<br />
Programs <strong>–</strong> System Structures <strong>–</strong> System Design and Implementation<br />
(10 Periods)<br />
UNIT III: Processes: Process concept <strong>–</strong> Process scheduling - Operation on Process <strong>–</strong> Co-operating<br />
Processes <strong>–</strong> Inter-Process Communication <strong>–</strong>Threads overview -Multi-threading models. CPU Scheduling:<br />
CPU scheduling <strong>–</strong> Basic concepts <strong>–</strong> Scheduling criteria <strong>–</strong> Scheduling Algorithms <strong>–</strong> Multiple processor<br />
scheduling <strong>–</strong> Real-time scheduling <strong>–</strong> Algorithm evaluation<br />
Process Synchronization: Critical Section Problem <strong>–</strong> Synchronization hardware <strong>–</strong>Semaphores <strong>–</strong> Classical<br />
problems of Synchronization .Deadlocks: System model - Deadlock Characterization <strong>–</strong> Methods for<br />
handling Deadlocks <strong>–</strong> Deadlock Prevention <strong>–</strong> Deadlock avoidance <strong>–</strong> Deadlock detection- Recovery from<br />
Deadlock<br />
(10 Periods)<br />
UNIT IV: - Memory Management: Background <strong>–</strong> Swapping <strong>–</strong> Contiguous Memory Allocation <strong>–</strong> Paging<br />
<strong>–</strong> Segmentation <strong>–</strong> Segmentation with Paging Virtual Memory: Virtual memory <strong>–</strong> Demand Paging <strong>–</strong> Page<br />
Replacement - Allocation of Frames <strong>–</strong> Thrashing <strong>–</strong> Other considerations. File Systems Interface: File<br />
system concepts <strong>–</strong> Access Methods <strong>–</strong>Directory Structure <strong>–</strong> File system mounting <strong>–</strong> File Sharing <strong>–</strong><br />
Protection. File Systems Implementation: File system Structure, File systems Implementation <strong>–</strong> Directory<br />
Implementation <strong>–</strong> Allocation methods <strong>–</strong> Free space Management.<br />
(10 Periods)<br />
Unit V : - I/O systems: Overview <strong>–</strong> I/O hardware <strong>–</strong> Application I/O interface <strong>–</strong> kernel I/O subsystem <strong>–</strong><br />
Transforming I/O to Hardware operations. Mass- storage structures: Disk structures <strong>–</strong> Disk scheduling <strong>–</strong>
Disk Management- Swap- space management <strong>–</strong> RAID Structure. Case Studies: The Linux System <strong>–</strong><br />
Design principles <strong>–</strong> Kernel Modules <strong>–</strong> process management <strong>–</strong> scheduling <strong>–</strong> memory management <strong>–</strong> File<br />
systems <strong>–</strong> Input and Output <strong>–</strong> Inter- Process communication -Examples of Real Time Operating<br />
Systems : POSIX compliance in Windows 2000 Operating systems<br />
(10 Periods)<br />
Text Books:<br />
1. D.M.Dhamdhere , Systems Programming and Operating Systems Tata McGraw Hill - Second<br />
Revised Edition 1997 (Unit I )<br />
2. Silberschatz, Galvin, Gagne - Operating Systems Concepts <strong>–</strong> Sixth edition <strong>–</strong> John Wiley &<br />
Sons <strong>–</strong> Indian edition <strong>–</strong>2002 (Unit II, III, IV and V)<br />
Reference Book:<br />
Andrew S. Tanenbaum, Modern Operating Systems <strong>–</strong> Second Edition <strong>–</strong> Prentice Hall of India -<br />
Indian Edition <strong>–</strong> 1995.<br />
D63 COMPUTER NETWORKS<br />
Unit-I: Fundamentals: Applications- Requirements: connectivity, cost effective resource sharing, support<br />
for common service- Network architecture: Layering and protocols, OSI Architecture, Internet architecture,<br />
Protocol implementation issues - Performance: Bandwidth and latency, Delay BW product, High speed<br />
networks, Application performance needs. (10 Periods)<br />
Unit <strong>–</strong> II: Direct Link Networks: Hardware building block: Nodes and links- Encoding- Framing: Byte<br />
and bit oriented protocols- Error detection: Internet checksum algorithm, CRC- Reliable transmission: stop<br />
and wait protocol, sliding window protocol- Ethernet and token rings: physical properties and access<br />
control- Wireless LAN: Physical properties, collision avoidance and distribution system.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Packet switching: Switching and forwarding: Datagrams and VC switching- Bridges and<br />
LAN switches: Learning bridges, spanning tree algorithm, Implementation and performance: Ports and<br />
fabrics- Simple internetworking: Introduction, service model, global address, Datagram forwarding-<br />
Routing: Graph representation, RIP and OSPF- Global internet- Subnetting and CIDR.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: End to End protocols and Data: Simple Demultiplexer (UDP) <strong>–</strong> Reliable byte stream (TCP)end<br />
to end issues, segment format, three way handshake- TCP extension- Remote procedure call <strong>–</strong> Date<br />
expression- lossless compression algorithms for image, video and audio : JPEG,MPEG, MP3.<br />
(10 Periods)<br />
Unit<strong>–</strong> V: Network security and Applications: Cryptographic algorithms: Requirements, DES, RSA and<br />
MD5- Firewalls: Filter based and proxy based- DNS: Domain hierarchy, name servers and solutions.<br />
Electronic mail, world wide web- Multimedia Applications: Real time transport protocol, session control<br />
and call control.<br />
(10 Periods)<br />
Text Book:<br />
Larry L. Peterson and Bruce S. Davie, “Computer networks-A system Approach”, Third Edition, McGraw<br />
Hill, 2000.<br />
Reference books:
CCNA3 and 4 Companion guide, Third Edition., Pearson education 2001.<br />
1 Andrew S. Tanenbaum, “Computer Networks”, Prentice Hall of India,2003<br />
2 Dimetri Bertsekas and Robert Gallager, “Data Networks”, PHI, 1994.<br />
D64 MICROWAVE <strong>ENGINEERING</strong><br />
UNIT I: Z, Y and S PARAMETERS and PLANAR TRANSMISSION LINES: Impedance and<br />
Admittance matrices-reciprocal networks-Lossless networks-Scattering matrices-Generalized scattering<br />
matrix - Transmission matrix - Relation between impedance, admittance, scattering & transmission<br />
matrices. Planar transmission lines <strong>–</strong> fabrication- Microstrip- Formula for effective dielectric constantcharacteristic<br />
impedance and attenuation.<br />
(10 Periods)<br />
UNIT II: IMPEDANCE MATCHING: Matching with lumped elements-Single stub & Double Stub<br />
matching - Analytic & Smith Chart solutions, Quarter wave Transformer-Tapered lines-Exponential taper-<br />
Triangular taper.<br />
(10 Periods)<br />
UNIT III: PASSIVE MICROWAVES: Dividers and couplers- Three port networks- T<br />
Junction - Lossless divider <strong>–</strong>Resistive divider- branch line coupler-hybrid coupler-Filter design by insertion<br />
loss method-maximally flat low pass filter <strong>–</strong> stepped impedance filter.<br />
(10 Periods)<br />
UNIT IV: ACTIVE MICROWAVE CIRCUITS: Ferrite devices-Phase shifters-Isolator-circulator-Low<br />
noise amplifier design-Mixers-Single ended mixers- Single Balanced mixers-Single pole switch-PIN diode<br />
switches.-One port negative resistance oscillator.<br />
(10 Periods)<br />
UNIT V: MEASUREMENTS: High power sources-Magnetron-TWT-Low power source-GUNN,<br />
IMPATT TRAPATT-Network analyzer-Spectrum analyzer.<br />
(10 Periods)<br />
Text Book:<br />
1. David M.Pozar, “Microwave Engineering”, John Wiley & Sons, 1998<br />
2. Annapurna Das & Sisir K.Das, “Microwave Engineering”, Tata McGraw Hill, 2000.<br />
References:<br />
1. David M..Pozar, “Microwave &RF Design of Wireless System”, John Wiley & Sons, 1998.<br />
2. R.E.Collin, “Foundations of Microwave Engineering”, McGraw Hill, 1995.<br />
3. www.agilent.com<br />
D65 OPTICAL COMMUNICATION & NETWORKS<br />
Unit I-INTRODUCTION TO OPTICAL FIBERS: Element of an Optical Fiber Transmission link <strong>–</strong><br />
Optical Fiber Modes and Configurations, Signal Degradation in Optical Fibers: Attenuation - distortion,<br />
Optical Sources: LEDs - Laser Diodes
(10 Periods)<br />
Unit II-OPTICAL TRANMISSION SYSTEM : Modulation and Demodulation, Transmission<br />
System Engineering: Transmitter-Receiver- Optical Amplifier-Cross talk-Dispersion-Fiber non-linearities <strong>–</strong><br />
Wavelength stabilization-Overall design considerations, Optical detectors.<br />
(10 Periods)<br />
Unit III- OPTICAL NETWORK ARCHITECTURE: Optical Couplers <strong>–</strong> Isolators and Circulators <strong>–</strong><br />
Multiplexers and Filters <strong>–</strong>Switches-Wavelength Converters, Introduction to Optical Network:<br />
Telecommunication Networks <strong>–</strong> First and Second Generation Optical Networks - SONET/SDH <strong>–</strong><br />
Computer interconnects <strong>–</strong> MAN- Layered Architecture.<br />
(10 Periods)<br />
Unit IV- WAVELENGTH ROUTING NETWORKS: Broadcast & Select Networks: Topologies for<br />
Broadcast Networks-MAC protocols <strong>–</strong> Test beds. Wavelength routing networks: optical layer-node<br />
designs-network design and operation-routing and wavelength assignment-architectural variations,<br />
Wavelength Routing Test beds: AONE-AON- NTT Ring- MWTN-ONTC- Alcatel’s WDM Ring-MONET.<br />
(10 Periods)<br />
Unit V- PHOTONIC PACKET SWITCHING: Access Networks: Network Architecture Overview-<br />
Present & Future Access Networks-Optical Access Network Architectures - Operational Principles of<br />
WDM <strong>–</strong> Solitons - OTDM <strong>–</strong> Multiplexing and Demultiplexing <strong>–</strong> Synchronization <strong>–</strong> Broadcast OTDM<br />
Networks <strong>–</strong> Switch Based Networks <strong>–</strong> OTDM Test beds.<br />
(10 Periods)<br />
TEXT BOOKS:<br />
1. Gerd Keiser, “Optical Fiber Communication” McGraw-Hill International, Singapore, 3 rd ed.,<br />
2000.<br />
2. Rajiv Ramaswami and Kumar N. Sivarajan, “Optical Networks”, Harcourt Asia Limited, 2000.<br />
REFERENCES:<br />
1. Selvarajan, S. Kar and T. Srinivas’ “Optical Communications: Principles and Systems” , Tata<br />
McGraw-Hill, 2002<br />
2. J.Gower, “Optical Communication System”, Prentice Hall of India, 2001<br />
3. Ajay Ghatak, K.Thyagarajan, Introduction to Fiber Optics, Cambridge, 1998.<br />
4. J.Senior, “Optical Communication, Principles and Practice”, Prentice Hall of India, 1994.<br />
5. Uyless Black, “Optical Networks” Pearson Education, 2002, Thomas E. Stem Krishna<br />
6. Bala. “Multiwavelength Optical Networks: A Layered Approach”, Addison Wesley Longman,<br />
Inc., 1999.<br />
7. David Greenfield, "The Essential Guide to Optical Networks” Prentice Hall, 2001<br />
8. Siva Ram Siva Murthy G. Mohan Gurusamy, “WDM Optical Networks: Concepts Design and<br />
Algorithms”, Prentice Hall, 2001.<br />
D66 DATA STRUCURES WITH OOPS<br />
UNIT I: Basic C++ Programming: The C++ Programming Model, A Simple C++ Program, Highlighting<br />
the C++ Elements, Fundamental Types, Pointers, Arrays, and Structures, Strings, C-Style Structures,
Pointers, Dynamic Memory, and the `new' Operator, Memory Leaks, Scope and Namespaces, Expressions,<br />
Casting in Expressions, Control Flow, Functions ,Overloading ,Classes ,Constructors and Destructors,<br />
Classes and Memory Allocation, Class Friends and Class Members, The Standard Template Library, C++<br />
Program and File Organization An Example Program, Writing a C++ Program in design and coding<br />
-Testing and Validation.<br />
(10 Periods)<br />
UNIT II: Object Oriented Design: Object-Oriented Design Principles, Inheritance and Polymorphism,<br />
Inheritance in C++, Polymorphism ,Examples of Inheritance in C++, Multiple Inheritance and Class<br />
Casting, Interfaces and Abstract Classes, Templates, Exceptions, Recursion and Other Design Patterns.<br />
(10 Periods)<br />
(10 Periods)<br />
UNIT III: Stacks, Queues, and Recursion: Using Recursion ,Higher-Order Recursion, Stacks, A Simple<br />
Array-Based Implementation, Implementing Recursion and Function Calls, Queues, Linked Lists, Double-<br />
Ended Queues, Sample Case Study Application, A Quadratic-Time Algorithm, A Linear-Time Algorithm,<br />
C++ Implementation<br />
(10 Periods)<br />
UNIT IV: Trees: The Tree Abstract Data Type, Terminology and Basic Properties, Tree Functions, A<br />
Tree Interface, Basic Algorithms on Trees, Running-Time Assumptions, Depth and Height, Preorder<br />
Traversal, Postorder Traversal, Binary Trees, Properties of Binary Trees, 275 Traversals of a Binary Tree,<br />
The Template Function Pattern, Data Structures for Representing Trees, A Linked Structure for General<br />
Trees, Representing General Trees with Binary Trees.<br />
(10 Periods)<br />
UNIT V: Sorting & Graphs: Merge-Sort, Divide-and-Conquer, A C++ Implementation of Merge-Sort<br />
Merge-Sort and Recurrence Relations ,Graphs: The Graph Abstract Data Type , Data Structures for<br />
Graphs, The Edge List Structure, The Adjacency List Structure, The Adjacency Matrix Structure, Graph<br />
Traversal, Depth-First Search ,Breadth-First Search, Directed Graphs, Weighted Graphs.<br />
(10 Periods)<br />
(10 Periods)<br />
Text Book:<br />
Goodrich, Tamassia and Mount, “Data Structures and Algorithms in C++”, 2004 Wiley Higher<br />
Education.http://cpp.datastructures.net/index.html<br />
Reference Books:<br />
1. Data Structure & Algorithm Analysis in C++ by Mark Allen Weiss, Pearson Education Asia,<br />
2002.<br />
2. Algorithms in C++ by Robert Sedgewick, Pearson Education Asia, 2002<br />
• Microwave X Band bench.<br />
D67 MICROWAVE AND ANTENNA LAB<br />
Source Characteristics, V-I Characteristics, Power and Frequency Measurement<br />
Device Characterization<br />
Coupler, Attenuator, Slotted Line, Y I G Filter, Hybrid<br />
• Antenna measurements
Low Frequency antenna measurement<br />
High Frequency antenna measurement<br />
• Measurement Models<br />
Measurement using Network analyzer <strong>–</strong> RF Components<br />
Measurement using Spectrum analyzer <strong>–</strong> Identification of signal<br />
• CAD Models<br />
Transmission Line / Discontinuity<br />
Matching network, filter<br />
Power divider, coupler<br />
• Study Experiments<br />
Chipcon board,<br />
Transmitter and Receiver block <strong>–</strong> Testing and measurement<br />
RF ID system<br />
D68 COMPUTER NETWORKING LAB<br />
• Studies of CISCO Routers<br />
• Structured Cabling<br />
• Router Components, Modes, & Command List<br />
• Basic Set of Router Configuration<br />
• Router Configuration using RIP,ICMP Protocols<br />
• Displaying IP address & host name<br />
• Port Scanning<br />
• Comparison of IP address<br />
• Datagram Client Server Model<br />
• Time Server Model<br />
D71 WIRELESS COMMUNICATIONS<br />
UNIT <strong>–</strong> I: Wireless Systems and Standards: AMPS and ETACS <strong>–</strong> IS-54 and IS-36 <strong>–</strong> Global System for<br />
Mobile <strong>–</strong> Digital Cellular Standard (IS-95) <strong>–</strong> CT2 Standard for Cordless Telephones <strong>–</strong> Digital European<br />
Cordless Telephone <strong>–</strong> Personal Access Communication Systems <strong>–</strong> Pacific Digital Cellular <strong>–</strong> Personal<br />
Handy Phone System.<br />
(10 Periods)<br />
UNIT - II: Cellular Concept <strong>–</strong> systems Design Fundamentals: Frequency Reuse <strong>–</strong> Channel Assignment<br />
& Handoff Strategies <strong>–</strong> Interference and System Capacity <strong>–</strong> Trunking and Grade of Service <strong>–</strong> Improving<br />
Coverage & Capacity in Cellular Systems.<br />
(10 Periods)<br />
UNIT <strong>–</strong> III: Mobile Radio Propagation <strong>–</strong> Large-Scale Path Loss: Radio wave propagation <strong>–</strong> Free Space<br />
Propagation Model <strong>–</strong> Basic Propagation Mechanisms <strong>–</strong> reflection <strong>–</strong> Ground Reflection Model <strong>–</strong> Diffraction<br />
<strong>–</strong> Scattering <strong>–</strong> Practical link budget design <strong>–</strong> Outdoor and Indoor propagation Models <strong>–</strong> Signal penetration<br />
into buildings <strong>–</strong> Ray Tracing and site specific Modeling.<br />
(10 Periods)
UNIT <strong>–</strong> IV: Mobile Radio Propagation <strong>–</strong> Small-scale fading and multipath: Small scale multipath<br />
propagation <strong>–</strong> Impulse response model of a multipath channel <strong>–</strong> parameters of mobile multipath channels <strong>–</strong><br />
Types of small scale fading <strong>–</strong> Statistical models for multipath channels - Multipath shape factors for small<br />
scale fading wireless channels.<br />
(10 Periods)<br />
UNIT <strong>–</strong> V: Equalization, Diversity, Multiple Access Techniques: Fundamentals of Equalization <strong>–</strong><br />
Training a generic adaptive equalizer <strong>–</strong> Equalizers in communication receiver <strong>–</strong> Linear Equalizer Nonlinear<br />
equalization <strong>–</strong> Algorithm for adaptive equalization <strong>–</strong> Fractional Equalizer <strong>–</strong> Diversity Techniques <strong>–</strong><br />
RAKE receiver <strong>–</strong> Interleaving, FDMA <strong>–</strong> TDMA <strong>–</strong> Spread Spectrum Multiple Access - SDMA- Packet<br />
Radio.<br />
(10 Periods)<br />
Text book:<br />
1. Theodore S.Rappaport, “Wireless Communications”, Pearson Education, 2002.<br />
Reference Books:<br />
1. Simon Haykin “Communication Systems”, 3 rd Edition, John Wiley, 2002.<br />
2. Edward Lee and David Messerschmitt, “Digital Communication, Kluwer Academic Publications,<br />
1993.<br />
3. John G.Proakis, “Digital Communications,” Fourth Ed. McGraw Hill International Edition, 2000.<br />
D72 DIGITAL SIGNAL PROCESSING SYSTEM DESIGN<br />
Unit <strong>–</strong> I: ADSP 21xx Architecture & Programming: Introduction to ADSP-2100 Family of Processors <strong>–</strong><br />
Assembly Language overview <strong>–</strong> Development systems <strong>–</strong> Single Precision Fixed Point Division <strong>–</strong><br />
Multiprecision Fixed Point Addition, Subtraction, multiplication & Division <strong>–</strong> Fixed point to floating point<br />
conversion and vice versa <strong>–</strong> Floating point addition, subtraction, multiplication & Division <strong>–</strong> Sine,<br />
Arctangent, square root & Logarithm approximation - Uniform random number generation.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: FFT and Filter Implementation using ADSP21xx: Implementation of FFT: Radix-2 Fast<br />
Fourier Transforms <strong>–</strong> Block Floating Point Scaling <strong>–</strong> Optimized Radix-2 DIT FFT <strong>–</strong> Leakage <strong>–</strong><br />
Implementation of Digital Filters: Single and Double Precision FIR Filters <strong>–</strong> IIR Filters <strong>–</strong> Multirate Filters.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: TMS320C6x Architecture: CPU Operation <strong>–</strong> Pipelined CPU <strong>–</strong> VelociTI <strong>–</strong> C64x DSP <strong>–</strong><br />
Software Tools: EVM-DSK Target C6x Board <strong>–</strong> Assembly File <strong>–</strong> Memory Management <strong>–</strong> Compiler Utility<br />
<strong>–</strong> Code Initialization <strong>–</strong> Code Composer Studio <strong>–</strong> Interrupt Data Processing.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Code Optimization: Word-wide optimization <strong>–</strong> Mixing C and Assembly <strong>–</strong> Software Pipelining<br />
<strong>–</strong> C64x Improvements <strong>–</strong> Real-time Filtering <strong>–</strong> Circular Buffering <strong>–</strong> Adaptive Filtering.<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Frame Processing, Real-time Analysis and Scheduling: Frame Processing: DMA <strong>–</strong> DSP Host<br />
communication <strong>–</strong> DFT and FFT Implementation <strong>–</strong> Real-time FFT <strong>–</strong> Real-time Analysis <strong>–</strong> Real-time
Scheduling <strong>–</strong> Real-time Data Exchange <strong>–</strong> DSP/BIOS <strong>–</strong> Data Synchronization and Communication<br />
(10 Periods)<br />
Text Books:<br />
1. Digital Signal Processing Applications using the ADSP <strong>–</strong>2100 Family, Volume <strong>–</strong>1 <strong>–</strong> Analog<br />
Devices, DSP Division,. Prentice Hall,1992. (Unit I,II).<br />
2. Nasser Kehtarnavaz and Mansour Keramat, “DSP System Design using the TMS320C6000”,<br />
Prentice Hall, 2001. (Unit III,IV,V).<br />
Reference Books:<br />
1. Sophocles J. Orfanidis, “Introduction to Signal Processing”, Prentice Hall, 1996.<br />
2. Sen M. Kuo, Bob H. Lee, “Real-Time Digital Signal Processing <strong>–</strong> Implementations, Applications<br />
and Experiments with the TMS320C55x”, John Wiley & Sons, 2001.<br />
3. John G. Proakis and Dimitris G Manolakis, ‘Digital Processing- Principles, Algorithms and<br />
applications’,-Third Edition PHI, 1997<br />
D73 DIGITAL IMAGE PROCESSING<br />
Unit I: Transforms and Image Enhancement: Components of an Image processing system <strong>–</strong>Image<br />
sensing and acquisition <strong>–</strong> Image Sampling and Quantization <strong>–</strong>Basic relationship between pixels<strong>–</strong> Walsh<br />
transform <strong>–</strong> Hadamard <strong>–</strong> Discrete cosine <strong>–</strong> Haar <strong>–</strong> slant <strong>–</strong> Hotelling transform. Image Enhancements: Gray<br />
level Transformations <strong>–</strong> Histogram processing <strong>–</strong> Arithmetic and logic operations <strong>–</strong> spatial filtering <strong>–</strong><br />
smoothing, sharpening filters<strong>–</strong> Smoothing, sharpening Frequency domain filters <strong>–</strong> Homomorphic filtering<br />
(10 Periods)<br />
Unit II: Image Restoration: Model of image degradation <strong>–</strong>noise models <strong>–</strong>Spatial filtering: Mean, order<br />
statistics, adaptive filters -Frequency domain filtering: Band pass, Band reject, notch filters-optimum notch<br />
filtering- linear position invariant degradations-Estimating degradation-Constrained least square filtering-<br />
Geometric mean filter -Geometric transformations<br />
(10 Periods)<br />
Unit III: Image Segmentation: Point detection <strong>–</strong> line detection <strong>–</strong> Edge detection <strong>–</strong>Edge linking and<br />
boundary detection - Thresholding <strong>–</strong> Role of Illumination <strong>–</strong> Global Thresholding <strong>–</strong> optimal thresholding <strong>–</strong><br />
Threshold selection <strong>–</strong> Region oriented segmentation <strong>–</strong> Basic formulation <strong>–</strong> Region growing by pixel<br />
aggregation <strong>–</strong> Region splitting & merging<br />
(10 Periods)<br />
Unit IV: Representation and Description: Chain codes <strong>–</strong> Polygonal approximation <strong>–</strong> signatures <strong>–</strong><br />
Boundary segments <strong>–</strong> skeleton of region <strong>–</strong> Boundary descriptors <strong>–</strong> simple descriptors <strong>–</strong> shape numbers <strong>–</strong><br />
Fourier descriptor <strong>–</strong> moments <strong>–</strong> Regional Descriptors <strong>–</strong> simple descriptors<strong>–</strong> Texture <strong>–</strong> Moments <strong>–</strong><br />
Morphology - dilation and erosion <strong>–</strong> opening and closing <strong>–</strong> Hit or miss transform <strong>–</strong> Basic morphological<br />
algorithm.
(10 Periods)<br />
Unit V: Applications: Industrial machine vision applications <strong>–</strong> Automated visual inspection-Process<br />
control-Parts identification- Robotics guidance and control-Space exploration <strong>–</strong>Medical image processing,<br />
Reconstruction <strong>–</strong> Scientific analysis <strong>–</strong> Remote sensing <strong>–</strong> Nature and applications of document image<br />
processing (DIP) <strong>–</strong>Image processing for DIP - Security, surveillance and law enforcement <strong>–</strong> JPEG<br />
compression.<br />
Text book:<br />
(10 Periods)<br />
1. Rafael.C.Gonzalez and Richard.E. Woods, “Digital Image Processing”, Pearson Education, 2003<br />
(Units I- IV )<br />
2. G.J.Awcock and R.Thomas, “Applied Image Processing”, McGraw-Hill, 1996 (Unit V)<br />
Reference books:<br />
1. Anil K.Jain, “Fundamentals of Digital Image Processing”, Pearson Education 2003<br />
2. Rafael.C.Gonzalez and Richard.E. Woods, “Digital Image Processing”, Addison Wesley 1993.<br />
3. Santanu Chaudhury,Shree K Nayar, “Computer Vision, Graphics and Image Processing-Recent<br />
Advances” , Viva Books, 1999<br />
4. Rafael.C.Gonzalez, Richard.E. Woods and Steven L. Eddins, “Digital Image Processing using<br />
Matlab”, Pearson Education, 2004<br />
D74 RF SYSTEMS<br />
UNIT I : Wireless RF Systems <strong>–</strong> Introduction to wireless systems <strong>–</strong> Design & performance issue <strong>–</strong><br />
Wireless Antennas <strong>–</strong> Propagation and Fading <strong>–</strong> Power Amplifier <strong>–</strong> Diode Mixer <strong>–</strong> SAW Filters <strong>–</strong><br />
Frequency Synthesizer <strong>–</strong> PLL Analysis <strong>–</strong> Oscillator Phase Noise <strong>–</strong> Receiver Architecture <strong>–</strong> Dynamic Range<br />
<strong>–</strong> FM broad Cast Receiver <strong>–</strong> Digital Cellular Receiver <strong>–</strong> Direct Conversion GSM Receiver.<br />
(10 Periods)<br />
UNIT II: RFICS <strong>–</strong> Introduction to communication circuits <strong>–</strong> Linearity & Distortion in RF Circuits <strong>–</strong><br />
Intercept Points <strong>–</strong> Review of Technology Bipolar transistors <strong>–</strong> current dependence <strong>–</strong> High frequency effects<br />
<strong>–</strong> Bipolar transistor design considerations <strong>–</strong> CMOS transistors <strong>–</strong> NMOS <strong>–</strong> CMOS small signal models <strong>–</strong><br />
Square Law Equations .<br />
(10 Periods)
UNIT III <strong>–</strong> RFIC Design - Design of Passive circuit elements in IC <strong>–</strong> Introduction <strong>–</strong> Sheer resistance &<br />
Skin effect <strong>–</strong> Parasitic L & C <strong>–</strong> Current Handling in metal lines Inductors <strong>–</strong> capacitors <strong>–</strong> Multi level<br />
inductors <strong>–</strong> Effect of Transmission lines <strong>–</strong> packaging.<br />
(10 Periods)<br />
UNIT IV: RFID Systems <strong>–</strong> Introduction <strong>–</strong> Frequency Ranges <strong>–</strong> Standards <strong>–</strong> Privacy & Security <strong>–</strong> Block<br />
Diagram of RFID <strong>–</strong> Readers <strong>–</strong> Tags <strong>–</strong> middleware <strong>–</strong> RFID Applications - Merits and Demerits. - RF<br />
Development Boards <strong>–</strong> Chipcon, Motorola, TI transceiver boards.<br />
(10 Periods)<br />
UNIT V : RFMEMS <strong>–</strong> Switches<strong>–</strong> Actuation Mechanism <strong>–</strong> Dynamics of switch operation <strong>–</strong> design<br />
considerations <strong>–</strong> MEMS inductors & Capacitors <strong>–</strong> Micro-machined Inductors <strong>–</strong> Effect of Inductor Layout <strong>–</strong><br />
Approaches for Improving Quality Factors <strong>–</strong> Folded Inductors <strong>–</strong> Variable Inductors <strong>–</strong> Polymer Inductor <strong>–</strong><br />
Gap tuning <strong>–</strong> Area Tuning <strong>–</strong> Dielectric Tunable Capacitor <strong>–</strong> Fab. techniques.<br />
(10 Periods)<br />
Text Books<br />
David.M.Pozar, “Microwave and RF Design of Wireless Systems”, John Wiley, 2001 (Unit I).<br />
John Rogers & Calvin Plett, “Radio Frequency Integrated Circuits”, Artech House, 2003 (Units II<br />
and III).<br />
Unit IV : www.trenster.com, www.activewaveinc.com, www.chipcon.com<br />
www.ti.com, www.microcircuits.com<br />
Vijay.K.Varadhan, K.J Vinoy, K.A. Jose, “RFMEMS and Their Applications”, John Wiley, 2002<br />
(Unit V).<br />
Reference Books<br />
David.M.Pozar, “Microwave Engineering”, Second Edition, John Wiley, 2004.<br />
G.M.Rebeiz , “RFMEMS Theory, Design and Technology”, John Wiley, 2003.<br />
D7A OPERATIONS RESEARCH<br />
UNIT I: INTRODUCTION: Basic concepts and scope of OR <strong>–</strong> Phases of OR Linear programming (LP):<br />
Formulation of LP Problems <strong>–</strong> Limitations of LP <strong>–</strong> Solutions to LPP <strong>–</strong> Graphical Solution <strong>–</strong>Standard LP<br />
form and its Basic solutions <strong>–</strong> The simplex algorithm <strong>–</strong> Artificial Variable Technique <strong>–</strong> Big M method,<br />
Two phase method <strong>–</strong> Variants of the Simplex Method <strong>–</strong> Degeneracy, unbounded solution, infeasible<br />
solution <strong>–</strong> Application for business and Industrial problems.<br />
(10 periods)<br />
UNIT II: DUALITY: Primal <strong>–</strong> Dual models <strong>–</strong> Dual Simplex method. Transportation model: Mathematical<br />
formulation of the problem <strong>–</strong> Methods for finding an initial solution <strong>–</strong> North West corner method, Least<br />
cost method, Vogel’s approximation method (VAM) <strong>–</strong> Test for optimality <strong>–</strong> Variants of the Transportation<br />
Problem. Assignment model: Mathematical Formulation of the problem <strong>–</strong> Solution of an Assignment<br />
Problem <strong>–</strong> Hungarian Algorithm <strong>–</strong> Variants of the Assignment problem <strong>–</strong> Traveling Salesman<br />
(10 periods)
UNIT <strong>–</strong>III: INTEGER LINEAR PROGRAMMING: Types- Concept of a Cutting Plane <strong>–</strong> Gomary’s cutting<br />
plane method <strong>–</strong> Branch and bound method. Dynamic programming: Concepts <strong>–</strong> Terminology <strong>–</strong> Bellman’s<br />
Principle of optimality <strong>–</strong> Application in Network, Allocation and Inventory.<br />
(10 periods)<br />
UNIT IV: PROJECT MANAGEMENT: PERT and CPM: Concept of Network <strong>–</strong> PERT, CPM -<br />
Construction of Network <strong>–</strong> Critical path analysis <strong>–</strong> Probability in PERT analysis <strong>–</strong> Cost trade-off analysis.<br />
Theory of games: Two person zero sum game <strong>–</strong> Pure strategies <strong>–</strong> Mixed strategies <strong>–</strong> Games with<br />
dominance <strong>–</strong> Solution methods of games without saddle point <strong>–</strong> algebraic method, arithmetic method,<br />
matrix method and Graphical method.<br />
(10 periods)<br />
UNIT V: INVENTORY CONTROL: Deterministic model <strong>–</strong> Costs <strong>–</strong> Decision variables <strong>–</strong> EOQ <strong>–</strong><br />
Instantaneous receipt of goods with and without shortages <strong>–</strong> Non-instantaneous receipt of goods without<br />
shortages - Price breaks <strong>–</strong> Probabilistic inventory model <strong>–</strong> Single period without setup cost <strong>–</strong> Inventory<br />
systems- Lead time <strong>–</strong> Safety stock <strong>–</strong> ROL, ROP determination. Queuing: Characteristics of Queuing<br />
system <strong>–</strong> Symbols and Kendall’s notation <strong>–</strong> Poisson arrival and exponential service <strong>–</strong> Single and multi<br />
channel model <strong>–</strong> Infinite population.<br />
(10 periods)<br />
Text Book:<br />
1. Sharma.J.K., “Operations Research : Theory and applications”, Macmillan India Ltd., Reprint, 2003.<br />
Reference Books:<br />
1. Hamdy A.Taha, “Operations Research <strong>–</strong> An Introduction”, Seventh Edition,, Prentice Hall of India<br />
Pvt Ltd., 2002.<br />
2. Don. T. Philips, Ravindran, A and James Solnerg, “Operations Research: Principles and Practice”,<br />
John Wiley and Sons, 1986.<br />
3. Bobby Srinivasan and Sandblom. C.L, “Quantitative Analysis for Business Decisions”, Mc Graw<br />
Hill Book Co, 1989.<br />
4. Chanrasekara Rao, K, Shanti Lata Misra, “Operations Research”, Alpha Science International Ltd,<br />
2005.<br />
D7B TELECOMMUNICATION SYSTEMS<br />
UNIT I: Basic Telephony - Local Loop, Tones -Types, Dialing - Simplex half, full, duplex modes -<br />
Signaling Techniques - Line, Register, Channel Signaling - Metering - Multiple Access Techniques-<br />
FDMA-TDMA-CDMA-<strong>OF</strong>DM-WDM-DWM - Wireless Local Loop - Fiber Local Loop - Bluetooth<br />
Technology - Home RF Network.<br />
(10 Periods)<br />
UNIT II: Electronic Exchange - overview of Audio engineering and Acoustic system - CD player - MP3<br />
player - HAM radio - Cellular Phones - Cordless Phones - Pagers - Caller ID.<br />
(10 Periods)<br />
UNIT III: T.V. Transmitter and Receiver - Monochrome and Color - Monochrome Vidicon Tube - Color<br />
Picture Tube - HDTV - DVD Player - CATV - MMDS - Set Top Box.<br />
(10 Periods)
UNIT IV: RADAR Block Diagram - RADAR range Equation - minimum detectable signal - Doppler<br />
effect - FMCW RADAR - Synthetic Aperture RADAR - Air Surveillance RADAR - Height Finder -<br />
Electronic Counter.<br />
(10 Periods)<br />
UNIT V: Geostationary Orbits - Fundamentals of Rocket Propulsion - Primary Launch Vehicles -<br />
Multistage Rockets - India Launch Vehicles - DBS Services - MSAT - VSAT- Global Communication -<br />
GPS application for continuing education - E-health through networking .<br />
(10 Periods)<br />
Text Books:<br />
1. Thiagarajan Viswanathan, “Telecommunication Switching Systems and Networks”, Prentice Hall<br />
India, 2000.(UNIT I)<br />
2. R.G.Gupta, “ Audio & Video Systems, Principles, Maintenance, Trouble Shooting”, TMH 1996.<br />
(UNIT II)<br />
3. R.R.Gulati, “Modern Television Practice, Principles, Technology & Servicing ”, 2 nd edition New<br />
Age International 2003.(UNIT III)<br />
4. Merill I.Skolnik, “Introduction to RADAR Systems”, McGraw Hill series 20 Dec 2002.(UNIT IV)<br />
5. Dennis Roddy, “ Satellite Communication”, 3 rd edition McGraw Hill, 2001.(UNIT V)<br />
6. Timothy Pratt & Charles W.Bostian, “ Satellite Communication”, Wiley October 2002.(UNIT V)<br />
Reference Books:<br />
1. Shrader, “Electronic Communication”, McGraw Hill 1993.<br />
2. T.S.Rappaport, “Wireless digital communications; Principles and Practice”, Prentice Hall,NJ, 2 nd<br />
edition 2001.<br />
D7C ADVANCED SIGNAL PROCESSING<br />
Unit <strong>–</strong> I: Multirate signal processing: Decimation <strong>–</strong> Interpolation <strong>–</strong> Sampling Rate Conversion by rational<br />
factor <strong>–</strong> direct form FIR Filter structures <strong>–</strong> Polyphase Filter structure <strong>–</strong> Time variant filter Structure <strong>–</strong><br />
Multistage Implementation of sampling rate conversion <strong>–</strong> Sampling rate conversion of bandpass signalssampling<br />
rate conversion by arbitrary factor <strong>–</strong> Applications of Multirate signal processing: QMF subbandcoding<br />
and Transmultiplexer.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Linear prediction and Optimum linear filters : Innovation representation of stationary random<br />
process <strong>–</strong> Forward and Backward Linear prediction <strong>–</strong> error filters <strong>–</strong>AR lattice and ARMA lattice ladder<br />
filter-Wiener filters for Filtering and Prediction.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Power Spectrum Estimation : Periodogram <strong>–</strong> Use of DFT in power spectrum estimation-<br />
Nonparametric Methods: Bartlett, Welch and Blackman Tukey methods <strong>–</strong> Parametric Methods: Yule<br />
walker, Burg, Unconstrained Least square and sequential Estimation methods <strong>–</strong> Selection of AR model<br />
order <strong>–</strong> MA and ARMA models for power spectrum estimation Eigen analysis algorithms.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Filter Bank and Wavelets: Quadrature Mirror Filter- Paraunitary Filter Banks- Biorthogonal<br />
Linear Phase Filter banks <strong>–</strong> Uniform M Channel Filter banks <strong>–</strong> Tree Structured Filter Banks- Wavelet<br />
Transform- Filter Banks and Wavelet <strong>–</strong> Properties of Wavelets <strong>–</strong> Scaling Function <strong>–</strong> Construction of<br />
wavelets- Examples of Wavelet Systems
(10 Periods)<br />
Unit <strong>–</strong> V: Regularity, Moments and Wavelet System design : K Regular scaling Filters <strong>–</strong> Vanishing<br />
Wavelet Moments <strong>–</strong> Daubechies Method for zero Moment wavelet design- Nonmaximal regularity wavelet<br />
design- Relation of zero wavelet <strong>–</strong> movements to smoothness- vanishing scaling Function Moments-<br />
Coiflets and related wavelet Systems <strong>–</strong> Applications of Wavelets.<br />
Text Books:<br />
(10 Periods)<br />
1. John G.Proakis and Dimitris G.Manolakis, “Digital Signal Processing Principles, Algorithms and<br />
Applications”, Third Edition, PHI, 1997 (Units 1,2 & 3)<br />
2. N.J.Fliege, “Multirate Signal Processing’PHI, 1995<br />
3. C.Sidney Burrus, Ramesh A Gopinath and Haitao Guo,” Introduction to Wavelets and wavelet<br />
Transforms <strong>–</strong> A Primer” Prentice Hall International, editions, 1998.<br />
Reference Books:<br />
1. Rabiner and Crochier, “Multirate Signal Processing” PHI, 1987.<br />
2. Raghuveer M Rao, “Introduction to Wavelet Transform”, New Age International, 2000.<br />
D7D EMBEDDED SYSTEMS DESIGN<br />
Unit I: Software Engineering Concepts for Real-time Systems: Real time definition, Software life cycle,<br />
spiral model, System performance, Analysis and optimization. Response time calculation, interrupt<br />
latency, time latency and its measurement , reducing response times and time loading ,Basic optimization<br />
theory.<br />
(10 Periods)<br />
Unit II :Real-time Kernels: Polled loops with interrupts, phase driven or state-driven code, co-routines,<br />
interrupt driven systems, foreground and background systems ,inter-task communication and<br />
synchronization, buffering data, mail boxes, critical regions, semaphores, event flags and signals,<br />
deadlocks, real<strong>–</strong>time memory management<br />
(10 Periods)<br />
Unit III :Program Design and Analysis: Formalism for system design using UML - Model of Program<br />
(flow graphs), Basic Compilation techniques, Analysis and optimization of execution time , program size ,<br />
energy and power. Processes and operating systems: Multiple tasks and processes, context switching OS<br />
states, structure, timing requirements, scheduling policies, RM and EDF, Inter-process communication<br />
mechanisms, evaluating OS performance, Power optimization strategies for processes.<br />
(10 Periods)<br />
Unit IV: Validation and Testing of Embedded Systems: Program validation and testing, clear box<br />
testing, black box testing, evaluating function tests and performance testing. System design techniques:<br />
Design Methodologies, Requirements analysis, specifications, Quality assurance<br />
(10 Periods)<br />
Unit V: Keeping time on computers: Timer applications, properties of real-time and ideal clocks, clock<br />
servers and clock synchronization, real-time language features. Real Time Operating Systems: Real-time
function and services, Real-time UNIX and POSIX Processes and threads Comparative study of sample of<br />
RTOS such as eCOS, real-time LINUX.<br />
(10 Periods)<br />
Text Books:<br />
1. (Unit I and II ) Philip A.Laplante, Real-time systems Analysis and Design An Engineer’s<br />
Handbook, <strong>–</strong> Chapters 6.7. 9 and 10 IEEE computer society press Prentice Hall of India , 2 nd<br />
edition.1997<br />
2. (Unit III and IV) Wayne Wolf, Computers as Components <strong>–</strong> Principles of Embedded Computing<br />
Systems Design <strong>–</strong> Chapters 5,6,7,.8,9 and appendix on UML - Harcourt India Private Limited -<br />
Morgan Kaufmann Publishers <strong>–</strong> First Indian Reprint <strong>–</strong> 2001.<br />
3. (Unit V) Alan C.Shaw <strong>–</strong> Real-time Systems and Software <strong>–</strong> Chapters 8, 9 and 10 -John Wiley &<br />
Sons- Indian reprint 2001<br />
D7E MEDICAL ELECTRONICS<br />
(Qualitative Analysis Only)<br />
Unit-I: Review of Recording and Monitoring Instruments: The origin of Bio electric signals<br />
ECG,EEG,EMG,PCG and EOG, lead systems and recording methods, typical waveforms and signal<br />
characteristics-Electrodes- Medical display systems- Patient monitoring systems.<br />
(10 Periods)<br />
Unit-II: Diagnostic Techniques: pH,pO2,pCO2,pHCO3 <strong>–</strong>Electrophoresis-Auto analyzers- Blood flow<br />
meters-Cardiac output measurement-Blood cell counters- pulmonary function analyzers.<br />
(10 Periods)<br />
Unit-III: Therapeutic Equipment: Cardiac pacemakers-Cardiac defibrillators-Dialysers-Surgical<br />
Diathermy-LASER-Physiotherapy and Electrotherapy equipments-Oxygenators-Heart-Lung Machines-<br />
Hearing aids. (10 Periods)<br />
Unit-IV: Medical Imaging: X-Ray and Computer Axial Tomography-Positron Emission Tomography-<br />
MRI and NMR-Ultrasonic Imaging systems-Medical Thermograph.<br />
(10 Periods)<br />
Unit-V: Computer applications in Medical field: Bio medical Telemetry-Radio pill-Tele stimulation-<br />
Physiological parameter monitoring in space station-Arrhythmia monitoring system-EEG signal analysis-<br />
Role of Expert Systems(Cadiag, Mycin)-Pattern recognition techniques-E-health- Concepts of Bio<br />
technology, Bio Informatics and Genetic Engineering <strong>–</strong>VLSI diagnostic fuzzy processor.<br />
Text Books:<br />
(10 Periods)<br />
1. R.S.Khandpur, “Hand book of Biomedical Instrumentation,” Tata McGraw Hill, NewDelhi-1998.<br />
2. Leslie Cromwel, Fred. J. Weibel, Erich.A.Pferffer, “Biomedical Instrumentation and<br />
Measurements,” Prentice Hall India, NewDelhi-2001.<br />
References:<br />
1. Rangaraj.M.Rangayyan, “Biomedical Signal Analysis-A Case Study Approach,” IEEE Press, John<br />
Wiley & Sons Inc, New York-2002.
2. Joseph .J.Carr and John .M.Brown, “Introduction to Biomedical Equipment Technology,” John<br />
Wiley & Sons Inc, New York-2002.<br />
3. Arnon-Cohen, “Bio-Medical Signal Processing,” Vol I&II, CRC Press.1995.<br />
4. R.D.Lele, “Computers in Medicine,” Tata McGraw Hill, NewDelhi-1989.<br />
5. John.C.Webster(Ed), “Medical Instrumentation Application and Design,”3 rd Edition, John<br />
Wiley&Sons Inc, New York-1998.<br />
D7F TELECOM NETWORK MANAGEMENT<br />
Unit <strong>–</strong> I: Background -Data Communications and Network Management Overview -Analogy of<br />
Telephone Network Management -Data (Computer) and Telecommunication Network -Distributed<br />
Computing Environments -TCP/IP--Based Networks: The Internet and Intranets Communications<br />
Protocols and Standards -Communication Architectures<br />
Integrated Services: ISDN, Frame Relay, and Broadband (10 Periods)<br />
Unit <strong>–</strong> II: SNMP, Broadband, and TMN Management -Basic Foundations: Standards, Models, and<br />
Language -Network Management Standards -Network Management Model<br />
Organization Model-Information Model -Communication Model -Functional Model -The SNMP<br />
Communication Model -The SNMP Architecture-The Administrative Model<br />
SNMP Protocol Specifications -SNMP Operations-RMON SMI and MIB -RMON1<br />
RMON1 Textual Conventions -RMON1 Groups and Functions (10 Periods)<br />
Unit <strong>–</strong> III: Broadband Network Management: ATM Networks -Broadband Networks and Services -ATM<br />
Technology -Virtual Path--Virtual Circuit -ATM Packet Size -Integrated Service -WAN/SONET -ATM<br />
LAN Emulation -Virtual LAN -ATM Network -Management -The ATM Network Reference Model -The<br />
Integrated Local Management Interface -The ATM Management Information Base -The Role of SNMP<br />
and ILMI in ATM -Management - ATM Digital Exchange Interface Management.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: DSL Technology -Asymmetric Digital Subscriber Line Technology -Role of the ADSL Access<br />
Network in an Overall Network -ADSL Architecture -ADSL Channeling -schemes -ADSL Encoding<br />
Schemes -ADSL Management -ADSL Network Management Elements -ADSL Configuration Management<br />
-ADSL Fault Management -ADSL Performance Management -SNMP-Based ADSL Line MIB -MIB<br />
Integration with Interfaces Groups in MIB-2 -ADSL Configuration Profiles -Telecommunications<br />
Management Network .<br />
(10 Periods)
Unit <strong>–</strong> V: Management Tools, Systems, and Applications -Network Management Tools and Systems<br />
-Network Management Tools -Tools Catalog -Bit Error Rate Tester<br />
Basic Software Tools -SNMP MIB Tools -The Protocol Analyzer -Network Statistics Measurement<br />
Systems -Traffic Load Monitoring -Protocol Statistics -Data and Error Statistics - Network Management<br />
System Requirements -Fault Management -Fault Detection -Fault Location and Isolation Techniques<br />
Text Book<br />
(10 Periods)<br />
1. Mani Subramanian,<br />
“Network Management: Principles and Practice”, Addison-Wesley Pub Co.,<br />
1st Edition, 2000.<br />
Reference Books<br />
1. Udupa, Divakara K, “ Telecommunication Management Network- Addison-Wesley Pub Co., May,<br />
2000.<br />
2. Udupa, Divakara K, “ Network Management Essentials”, McGraw-Hill Series on Computer<br />
Communications 2000.<br />
D7G REMOTE SENSING AND GIS<br />
Unit I - Remote Sensing Concepts: Energy Sources and Radiation Principles <strong>–</strong> Energy Interactions in the<br />
Atmosphere, Earth Surface Features <strong>–</strong> Data Acquisition and Interpretation <strong>–</strong> Ideal Remote Sensing System<br />
<strong>–</strong> Real Remote Sensing System Characteristics <strong>–</strong> Global Positioning System <strong>–</strong> Across Track Scanning and<br />
Operating Principles <strong>–</strong> Along Track Scanning .<br />
(10 Periods)<br />
Unit II - Image Processing in Remote Sensing: Image Enhancement <strong>–</strong> Contrast Manipulation <strong>–</strong> Spatial<br />
Feature Manipulation <strong>–</strong> Image Classification <strong>–</strong> Supervised Classification <strong>–</strong> Classification Stage <strong>–</strong> Training<br />
Stage <strong>–</strong> Unsupervised Classification <strong>–</strong> Hybrid Classification <strong>–</strong> Post Classification Smoothing <strong>–</strong> Output<br />
Stage <strong>–</strong> Change Detection Techniques.<br />
(10 Periods)<br />
Unit III - Microwave Remote Sensing and Remote Sensing Satellites: Active Microwave Sensing <strong>–</strong> Side-<br />
Looking Radar System Operation <strong>–</strong> Synthetic Aperture Radar <strong>–</strong> Passive Microwave Sensing <strong>–</strong> Microwave<br />
Radiometers <strong>–</strong> Passive Microwave Scanner <strong>–</strong> Applications- LIDAR Remote Sensing. Remote Sensing<br />
Satellites: IRS 1A/1B <strong>–</strong> IRS 1C/1D <strong>–</strong> IRS P4 (OCEANSAT-1) <strong>–</strong> IRS P5 (CARTOSAT-1) <strong>–</strong> IRS P6<br />
(RESOURCE SAT-1) <strong>–</strong> CARTOSAT-2 <strong>–</strong> RISAT-1 - Landsat <strong>–</strong> SPOT Satellites.<br />
(10 Periods)<br />
Unit IV <strong>–</strong> Geographical Information Systems: Information Systems Overview <strong>–</strong> GIS Definitions and<br />
Terminology <strong>–</strong> GIS Queries <strong>–</strong> GIS Architecture <strong>–</strong> Theoretical Models of GIS. Spatial Data Modelling:<br />
Stages of GIS Data Modelling <strong>–</strong> Graphic Data Representation of Spatial Data <strong>–</strong> Raster GIS Models <strong>–</strong><br />
Vector GIS Models <strong>–</strong> Comparison of Raster and Vector Data Models<br />
(10 Periods)
Unit V - Remote Sensing Applications: Image Interpretation Elements, Strategies and Keys <strong>–</strong> Land<br />
Use/Land Cover Mapping <strong>–</strong> Agricultural Applications <strong>–</strong> Forestry Applications <strong>–</strong> Water Resource<br />
Applications <strong>–</strong> Urban & Regional Planning Applications <strong>–</strong> Wetland Mapping <strong>–</strong> Wild Life Ecology<br />
Applications <strong>–</strong> Archaeological Applications.<br />
(10 Periods)<br />
Text Books:<br />
1. Thomas M.Lillesand, Ralph W.Kiefer, “Remote Sensing and Image Interpretation”, Fifth Edition,<br />
2004. (Units I to III & V)<br />
2. M.Anji Reddy, “Remote Sensing and Geographical Information Systems”, Second Edition, BS<br />
Publications. 2001 (Unit IV)<br />
Reference Books:<br />
1. Swain and Davis, “Remote Sensing <strong>–</strong> The quantitative Approach”, McGraw Hill<br />
Publications.1997.<br />
2. John R. Jensen, “Remote Sensing of the Environment <strong>–</strong> An Earth Resource Perspective”, Pearson<br />
Education Series, 2003.<br />
3. Kang-Tsung Chang, “Introduction to Geographic Information Systems”, Tata McGraw-Hill Edition,<br />
2002.<br />
D77 DSP and FPGA LAB<br />
I Experiments on TMS 320 c6711 and ADSP 2181 processors<br />
• Arithmetic Operations<br />
• FFT Computations<br />
• Linear Convolution<br />
• Circular Convolution<br />
• FIR Filter Design<br />
• IIR Filter Design<br />
II Experiments on Xilinx FPGA<br />
Adders and ALU<br />
Comparators and Counters<br />
Encoder and decoder<br />
Flip flops and Latches<br />
Shift registers<br />
PN Sequence<br />
D78 RF AND IMAGE PROCESSING LAB<br />
Simulation Using MATLAB (Image Processing Toolbox)<br />
Image Sampling and Quantization<br />
Transforms (Walsh, Hadamard, DCT, Haar)<br />
Image Enhancement <strong>–</strong> Histogram Equalization, Spatial Filtering<br />
Image Segmentation <strong>–</strong> Edge Detection , Line Detection and Point Detection<br />
Basic Morphological Algorithms<br />
Simulation using Agilent Advanced Design Suite<br />
Low Noise Amplifiers
Mixers<br />
Switches<br />
Antenna<br />
Behavioral modals<br />
Intelesuite-MEMS circuits and MEMS switches<br />
Optical Communication Experiments<br />
D.C. Characteristics of LED and PIN Photo Diode<br />
Optical transmission using Analog Modulation<br />
System bandwidth Determination by Intensity Modulation.<br />
Data transmission through Fiber Optic Link.<br />
Time Division Multiplexing<br />
PI Characteristics of LASER diode<br />
Biomedical Instrumentation<br />
• Filter design for EEG signals<br />
• Study of PPD waveforms<br />
Mini- Project<br />
Fabrication of Filter/Coupler/Antenna/Mixer/LNA<br />
D81 ORGANIZATIONAL BEHAVIOUR AND MANAGEMENT<br />
Unit <strong>–</strong> I: Foundations: Historical development- Relevant environment <strong>–</strong> Conceptual model for<br />
organizational Behavior <strong>–</strong> Understanding Human behavior <strong>–</strong> Perception <strong>–</strong> learning <strong>–</strong> motivation <strong>–</strong><br />
selectivity organization <strong>–</strong> Learning theory <strong>–</strong> Principles <strong>–</strong> Motivation to work <strong>–</strong> Personality development<br />
theories.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Dynamics and organizational practices: Group dynamics <strong>–</strong> formal, informal groups- conflict <strong>–</strong><br />
Leadership and power <strong>–</strong> selection of job <strong>–</strong> design, training and performance appraisal <strong>–</strong> organizational<br />
change.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Introduction to Management: Meaning, Approaches to management <strong>–</strong> Management an art,<br />
science and profession <strong>–</strong> Training of Managers <strong>–</strong> Evolution of Management thought.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Managers and Environment: Social responsibility <strong>–</strong> Decision making Process of Management<br />
<strong>–</strong> Planning <strong>–</strong> Organizing <strong>–</strong> Staffing <strong>–</strong> Directing <strong>–</strong> Controlling.<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Introduction to functional areas: Production <strong>–</strong> Purchasing, Personnal, Marketing and finance <strong>–</strong><br />
The nature of functions and Major tasks.<br />
(10 Periods)<br />
Reference Books:
1. Gred Luthans, “ Organisational Behavior” 5 th Edition<br />
2. Kooniz & O. Dennel, “Principles of Managements” , 8 th edition<br />
3. Chester I.Barnard, “Management (systems view)”<br />
D8A ASIC DESIGN<br />
Unit I : Introduction to ASICs : Types of ASICs <strong>–</strong> design flow <strong>–</strong> case study <strong>–</strong> ASIC cell Libraries <strong>–</strong><br />
Programmable ASICs <strong>–</strong> antifuse <strong>–</strong> Static RAM <strong>–</strong> EPROM & EEPROM Technology <strong>–</strong> Specifications <strong>–</strong><br />
FPGA Economics.<br />
(10 Periods)<br />
Unit II : Programmable ASICs : Actel ACT <strong>–</strong> ACT1 Logic module <strong>–</strong> Shannon’s expansion theorem <strong>–</strong><br />
Multiplexer logic as Function Generators <strong>–</strong> ACT 2 and ACT 3 Logic Modules <strong>–</strong> Timing Modules and<br />
Critical Paths <strong>–</strong> Xilinx LCA <strong>–</strong> XC3000 CLB<strong>–</strong> XC4000 Logic Block <strong>–</strong> XC5200 Logic Block <strong>–</strong> Xilinx<br />
CLB Analysis <strong>–</strong> Altera FLEX <strong>–</strong> Altera MAX <strong>–</strong> Logic Expanders <strong>–</strong> Timing Model <strong>–</strong> Power dissipation in<br />
complex PLDs <strong>–</strong> DC output <strong>–</strong> AC output <strong>–</strong> DC input <strong>–</strong> AC input <strong>–</strong> Clock input <strong>–</strong> power input<br />
(10 Periods)<br />
Unit III : ASIC Construction : Physical design <strong>–</strong> CAD Tools <strong>–</strong> Methods and Algorithms <strong>–</strong> System<br />
Partitioning <strong>–</strong> Estimating ASIC Size <strong>–</strong> Power Dissipation <strong>–</strong> Switching current <strong>–</strong> short circuit current <strong>–</strong><br />
subthreshold and leakage current -FPGA Partitioning <strong>–</strong> ATM simulator <strong>–</strong> Automatic partitioning with<br />
FPGAs - Partitioning Methods.<br />
(10 Periods)<br />
Unit IV : Backend Design : Floor planning Methods <strong>–</strong> Block placement and channel definition <strong>–</strong> Global<br />
routing <strong>–</strong> switch box routing <strong>–</strong> power distribution <strong>–</strong> clock distribution <strong>–</strong> floor planning <strong>–</strong> design validation<br />
<strong>–</strong> Off chip connections <strong>–</strong> packages <strong>–</strong> The I/O Architecture <strong>–</strong> Pad design.<br />
(10 Periods)<br />
Unit V : Testing : The importance of test <strong>–</strong> Boundary scan test <strong>–</strong> BST Cells <strong>–</strong> BST Registers <strong>–</strong> Instruction<br />
Decoder - TAP Controller <strong>–</strong> Boundary scan controller <strong>–</strong> A Simple boundary scan example - ATPG <strong>–</strong> The<br />
D <strong>–</strong> calculus <strong>–</strong> A Basic ATPG Algorithm <strong>–</strong> The PODEM Algorithm <strong>–</strong> controllability and observability -<br />
Scan test <strong>–</strong> Built in self Test. (10 Periods)<br />
Text Book:<br />
1. Michael John Sebastian Smith, “Applications Specific Integrated Circuits “, Pearson Education,<br />
Ninth Indian Reprint, 2004.<br />
2. Wayne Wolf, “ Modern VLSI Design” , Pearson Education, Second Indian Reprint,2003<br />
Reference book:<br />
1. Wayne Wolf, “Modern VLSI design” - Addison Wesley, 1998.<br />
2. Neel H.E.Weste Eshraghian, “Principles of CMOS VLSI Design”, Addison Wesley, 1999.<br />
D8B MACHINE VISION
Unit <strong>–</strong> I: Machine vision: Introduction- Machine vision <strong>–</strong> Relationship to other fields <strong>–</strong> Image definitions<br />
levels of computation <strong>–</strong> Binary image processing <strong>–</strong> Thresholding Geometric properties <strong>–</strong> position <strong>–</strong><br />
orientation <strong>–</strong> Run length encoding Binary algorithms <strong>–</strong> Definitions <strong>–</strong> Component labeling- Size filter <strong>–</strong><br />
Euler number <strong>–</strong> Region boundary <strong>–</strong> Area perimeter <strong>–</strong> compact Distance measures <strong>–</strong> Distance transforms <strong>–</strong><br />
Medial axis <strong>–</strong> Thinning expanding and shrinking <strong>–</strong> morphological operators.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Regions: Regions and Edges <strong>–</strong> Region segmentation <strong>–</strong> Automatic thresholding Limitation of<br />
Histogram methods <strong>–</strong> Region representation <strong>–</strong> array representation <strong>–</strong> Hierarchical representations <strong>–</strong><br />
symbolic representation <strong>–</strong> Split and merge <strong>–</strong> region merging <strong>–</strong> Removing weak edges <strong>–</strong> Region splitting <strong>–</strong><br />
split and merge <strong>–</strong> Region growing.<br />
(10 Periods)<br />
Unit <strong>–</strong> III: Edge detection: Gradient <strong>–</strong> Steps in edge deduction <strong>–</strong> Roberts operator <strong>–</strong> sober operator <strong>–</strong><br />
pewit operator <strong>–</strong> Comparison Second derivative operator, Laplacian operator, Second derivative Image<br />
approximation <strong>–</strong> Gaussian edge Detection <strong>–</strong> Canny edge detector <strong>–</strong> subpixel location estimation <strong>–</strong> Edge<br />
detector performance <strong>–</strong> methods of Evaluating performance <strong>–</strong> Figure of merit <strong>–</strong> Sequential methods <strong>–</strong> Line<br />
detection.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Optics shading: Optics <strong>–</strong> lens equation <strong>–</strong> Image resolution <strong>–</strong> Depth of Field view volume <strong>–</strong><br />
Exposure <strong>–</strong> shading <strong>–</strong> Image Inductance <strong>–</strong> Illumination <strong>–</strong> Reflector <strong>–</strong> Surface orientation <strong>–</strong> shape from<br />
shading depth <strong>–</strong> Stereo imaging <strong>–</strong> Cameras in arbitrary position and orientation <strong>–</strong> Stereo matching <strong>–</strong> Edge<br />
matching <strong>–</strong> Region correlation shape from X <strong>–</strong> Range imaging <strong>–</strong> structural lighting<strong>–</strong> Imaging Radar <strong>–</strong><br />
Active vision.<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Dynamic vision & object recognition: Change detection <strong>–</strong> Difference pictures <strong>–</strong> Static<br />
segmentation and matching <strong>–</strong> object recognition <strong>–</strong> system components <strong>–</strong> complexity of object recognition<br />
<strong>–</strong> object representation <strong>–</strong> observer <strong>–</strong> centered <strong>–</strong> object centered representations <strong>–</strong> feature detection -<br />
recognition strategies - classification <strong>–</strong> Matching Feature indexing <strong>–</strong> verification <strong>–</strong> Template matching <strong>–</strong><br />
morphological approach <strong>–</strong> symbolic <strong>–</strong> analogical methods.<br />
(10 Periods)<br />
Text book:<br />
Ramesh Jain ,Rangachar Kasturi and Brian G. Schunck, “Machine Vision”McGraw Hill international<br />
Edition <strong>–</strong> 1995.<br />
Reference books:<br />
1. Anil K.Jain “Fundamentals of Digital Image Processing” PHI, India 1995<br />
2. Gregory A baxes, “Digital Image processing” John Wiley & Sons, 1993.<br />
3. W.K.Pratt, “Digital Image processing” John Wiley and Sons, 1991.<br />
D8C DATA COMPRESSION<br />
Unit <strong>–</strong> I: Introduction Coding, Inter pixel. Psycho visual redundancy - Lossless,lossy Compression <strong>–</strong><br />
Measure of performance - Modeling and Coding <strong>–</strong> Huffman coding <strong>–</strong> Good codes <strong>–</strong> The Huffman coding
algorithm <strong>–</strong> Minimum variance code <strong>–</strong> Length of Huffman <strong>–</strong> Extended, Non-Binary Huffman codes <strong>–</strong><br />
adaptive Huffman coding <strong>–</strong> Application of Huffman coding <strong>–</strong> Lossless image compression <strong>–</strong> Text, Audio<br />
Compression.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Arithmetic coding: Introduction- coding a sequence <strong>–</strong> generating deciphering the tag <strong>–</strong><br />
Generating a binary code <strong>–</strong> Uniqueness of arithmetic code <strong>–</strong> Algorithm, integer implementation <strong>–</strong><br />
comparison of Huffman and arithmetic coding <strong>–</strong>Applications-bi-level image (JBIG standard) compression,-<br />
JBIG2- Image compression.<br />
(10 Periods)<br />
Unit - III: Dictionary techniques and Lossless compression: Static dictionary <strong>–</strong> Adaptive dictionary <strong>–</strong> LZ<br />
77, LZ78 approach <strong>–</strong> applications <strong>–</strong> File compression <strong>–</strong> Graphics interchange format <strong>–</strong> compression over<br />
modems (V .42 bis) <strong>–</strong> Facsimile encoding <strong>–</strong> run length coding <strong>–</strong> comparison of MH, MR, MMR and JBIG<br />
<strong>–</strong> Progressive Image transmission <strong>–</strong> Linear prediction, context, Multiresolution models <strong>–</strong> Modeling<br />
prediction errors.<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Differential and subband coding: Basic algorithm <strong>–</strong> prediction in DPCM <strong>–</strong> Adaptive DPCM <strong>–</strong><br />
Delta modulation <strong>–</strong> Speech coding (G .726) <strong>–</strong> Frequency domain and filtering <strong>–</strong> Basic subband coding<br />
algorithm <strong>–</strong> Applications to speech coding,(G.722), Audio coding (MPEG audio) <strong>–</strong>- Application to Image<br />
compression <strong>–</strong> Wavelets and image compression.<br />
(10 Periods)<br />
Unit <strong>–</strong> V: Transform coding and Analysis/Synthesis schemes: Introduction <strong>–</strong>Transform <strong>–</strong> KL transform <strong>–</strong><br />
discrete cosine, Sine, Walsh- Hadamard transform <strong>–</strong> Quantization and coding of transform coefficients <strong>–</strong><br />
JPEG image compression <strong>–</strong> Application to Audio compression <strong>–</strong> Speech compression <strong>–</strong> Channel vocoder <strong>–</strong><br />
linear predictive coder <strong>–</strong> coder <strong>–</strong> code excited linear prediction <strong>–</strong> sinusoidal coders <strong>–</strong> Silence compression.<br />
(10 Periods)<br />
Text Book:<br />
1. Khalid Sayood, “Introduction to Data Compression” Morgan Kauffmann Publishers, Inc.<br />
California, 2001.
Reference Books:<br />
• Mark Nelson, Jean Louf Goilly, “The Data Compression Book”, BPB Publications, 1996.<br />
• Rafel C.Gonzalez “Digital Image Processing”, Addison Wesley, 2003.<br />
D8D DATA BASE MANAGEMENT SYSTEM<br />
Unit I: Introduction: purpose of database systems - View of data - Data Model - Database languages -<br />
Transaction Management - Storage management - DBA- Database Users - Overall System Structure. Entity<br />
Relationship Model: Basic Concepts - Design issues - Mapping Constraints - Keys - E-R Diagrams- -Weak<br />
Entity Sets - Extended E-R Features - Design of an E-R Database Schema - Reduction to tables<br />
(10 Periods)<br />
Unit II: Relational Model: Structure of Relational Databases - Relational Algebra - Tuple Relational<br />
Calculus - Domain Relational Calculus - Extended Relational Algebra Operations - Modification of the<br />
Databases SQL: Basic Structure - Ste Operations - Aggregate Functions - Null Values - Nested Sub Quires<br />
- Derived Relations - Views - Modification Of Databases - Joined Relations - DDL - Embedded SQL -<br />
Other SQL Features.<br />
(10 Periods)<br />
Unit III: Integrity Constraints: Domain Constraints - Referential Integrity - Assertions - Triggers -<br />
Functional Dependencies Relational Database Design: Pitfalls in database Design - Decomposition -<br />
Normalization using Functional Dependencies - Multi valued Dependencies - Join Dependencies - Domain<br />
Key Normal Form - Alternative Approaches.<br />
(10 Periods)<br />
Unit IV: Storage and File Structures: Physical Storage Media - Magnetic Disks - RAID - Tertiary<br />
Storage - Storage Access - File Organization - Organization of Records in Files - Data Dictionary -<br />
Storage. Indexing and Hashing: Basic Concepts - Ordered Indices - B+ Trees Index Files - Btree Index<br />
Files - Static Hashing - Dynamic Hashing - Comparison of Ordered Indexing and Hashing - Index<br />
Definition in SQL - Multiple Key Access.<br />
(10 Periods)<br />
Unit V: Transactions: Transactions Concepts - Transaction State - Implementation of Atomicity and<br />
Durability Executions. Concurrency Control: Lock Based Protocols.Case Study: BD2: Architecture -<br />
Process Models - Memory Modal - Storage Model - SQL Compiler. Controlling Data Access:<br />
Authentication - Authorities and Privileges - DB2 application Development - Static and Dynamic<br />
Embedded SQL - Call Level Interface (CLI) - DB2 APIs - Java Interfaces.<br />
(10 Periods)<br />
Textbooks:<br />
1 Abraham Silberschatrtz, Henry Forth and S.Sudhersan - Database System Concepts - Third Edition<br />
McGraw Hill Edition Units I to IV<br />
2. George Baklarz and Bill Wong, DB2 Universal Database V7.1 Fourth Edition Unit V<br />
Reference Books:<br />
1. Ragu Ramakrishnan, Database Management Systems, McGraw Hill Edition, 1998.<br />
2. Ramez Elmasri and Samrath Navetha, Fundamentals of Database System, Addison Werely, 1994.<br />
3 Thomas Connly Begg and Anne Strachan, Database Systems - A practical Approach to Design<br />
Implementation, Second Edition, Addison Wesley, 1998
D8E PRINCIPLES <strong>OF</strong> MEDICAL IMAGING<br />
Unit I: Acquisition of Images: Introduction to Imaging Techniques - Single crystal scintillation camera -<br />
Principles of scintillation camera operation - multiple crystal scintillation camera- solid state camera -<br />
rectilinear scanner- Emission computed Tomography- Radiography: Digital Radiography.<br />
(10 hours)<br />
Unit II: Mathematical Preliminaries for Image Reconstructions: Image Reconstruction from<br />
Projections in Two dimensions - Mathematical Preliminaries for Two and Three dimensional Image<br />
Reconstructions- Radon Transform- Projection Theorem-central slice Theorem- Sinogram - Two<br />
Dimensional Projection Reconstruction - Three Dimensional Projection Reconstruction - Iterative<br />
Reconstruction Techniques- Fourier Reconstruction. 10 hours)<br />
UnitIII: Fluroscopy, CT, Images quality: Digital fluoroscopy - Automatic Brightness controlcinefluorography<br />
- Principles of computed Tomographic Imaging - Reconstruction algorithms - Scan<br />
motions- X-ray sources Influences of Images quality: Unsharpness - contrast- Image Noise-,Image<br />
distortion -Artifacts.<br />
(10 hours)<br />
UnitIV: Magnetic Resonance Imaging and Spectroscopy: Fundamentals of Magnetic Resonanceoverview<br />
- Pulse sequences - spatial encoding of magnetic Resonance Imaging signal - Motion suppression<br />
Techniques - Contrast Agents - tissue contrast in MRI - MR Angiography, spectroscopy - chemical shift<br />
Imaging.<br />
(10 hours)<br />
Unit V: Ultra sound, Neuro magnetic Imaging: Ultra sound: Presentation modes -Time required to<br />
obtain Images - System components, signal processing - dynamic Range - Ultrasound Image Artifacts -<br />
Quality control, Origin of Doppler shift - Limitations of Doppler systems. Neuro magnetic Imaging:<br />
Background - Models and Image Reconstruction - Instrumentation.<br />
(10 hours)<br />
Text Books:<br />
1. William R.Hendee, E.Russell Ritenour ,”Medical Imaging Physics” A John Wiley & sons,<br />
Inc.,Publication, Fourth Edition 2002.(Units I,III,IV,V)<br />
2. Z.H.Cho.,J-oie,P.Jones and Manbir Singh,” Foundations of Medical Imaging” John Wiley and<br />
sons Inc.(Units II &V)<br />
Reference Books:<br />
Avinash C.Kak, Malcolm Shaney, “Principles of Computerized Tomographic Imaging", IEEE<br />
Press, New york-1998.<br />
D8F NETWORK SECURITY<br />
Unit <strong>–</strong> L: Conventional Encryption: Introduction <strong>–</strong> Conventional Encryption model <strong>–</strong> Staganography <strong>–</strong><br />
Data Encryption Standard <strong>–</strong> block cipher <strong>–</strong> Encryption algorithms <strong>–</strong> confidentiality <strong>–</strong> Key distribution.
Unit <strong>–</strong> II: Public Key Encryption and Hashing: Principles of Public key cryptosystems <strong>–</strong> RSA algorithm<br />
<strong>–</strong> Diffie-Hellman Key Exchange <strong>–</strong> Message authentication and Hash function <strong>–</strong> Hash MAC algorithms <strong>–</strong><br />
Digital signatures.<br />
Unit <strong>–</strong> III: IP Security: IP security overview <strong>–</strong> IP security Architecture, authentication Header <strong>–</strong> Security<br />
payload <strong>–</strong> security association <strong>–</strong> key management<br />
Unit <strong>–</strong> IV: Web security: Web security requirement <strong>–</strong> secure sockets layer <strong>–</strong> transport layer security <strong>–</strong><br />
secure electronic transaction <strong>–</strong> dual signature.<br />
Unit <strong>–</strong> V: System Security: Intruders <strong>–</strong> Intrusion detection-password management -Viruses <strong>–</strong> Viruses and<br />
related threats-Worms <strong>–</strong> Firewall design <strong>–</strong> Trusted systems <strong>–</strong> Antivirus techniques <strong>–</strong> digital immune<br />
systems.<br />
References:<br />
1. C. Kaufmann, R. Perlman and M. Speciner, “Network Security: Private Communication in a<br />
Public World”, Prentice Hall PTR, 2002.<br />
2. W.R. Cheswick, S.M. Bellovin and A.D. Rubin, “Firewalls and Internet Security”, Addision-<br />
Wesley, 2003.<br />
3. William Stallings. “Cryptography and network Security”, 4 th Edition, Prentice Hall of India, New<br />
Delhi, 2004.<br />
D8G VIRTUAL INSTRUMENTATION<br />
Unit <strong>–</strong> I: The LabVIEW Programming Environment <strong>–</strong>Controls - Indicators loops- charts <strong>–</strong> arrays <strong>–</strong> graphs<br />
and clusters - Programming Structures (Case and sequence) <strong>–</strong> strings and file I/O.<br />
(10 Periods)<br />
Unit <strong>–</strong> II: Data acquisition <strong>–</strong> waveforms <strong>–</strong> buffered data accusation <strong>–</strong> Instrument control <strong>–</strong> GPIB<br />
Communication <strong>–</strong> Instrument driver <strong>–</strong> serial port communication <strong>–</strong> customizing Virtual Instrumentation<br />
proprieties.<br />
(10Periods)<br />
Unit <strong>–</strong> III: Planning LABVIEW applications <strong>–</strong> Implementation <strong>–</strong> error handling <strong>–</strong> architectures <strong>–</strong> Virtual<br />
Instrumentation templates <strong>–</strong> Designing front panels <strong>–</strong> Interface issues <strong>–</strong> property nods <strong>–</strong> control reference <strong>–</strong><br />
run time menus <strong>–</strong> Intensity plots<br />
(10 Periods)<br />
Unit <strong>–</strong> IV: Data management techniques in LABVIEW - Local variables <strong>–</strong> Global variables <strong>–</strong> Data socket<br />
<strong>–</strong> Advanced file I/O Techniques - bytes stream files data log files <strong>–</strong> data to disk <strong>–</strong> developing larger<br />
projects <strong>–</strong> assembling LabVIEW application <strong>–</strong> LabVIEW features, tools for project management and<br />
development.
(10 Periods)<br />
Unit <strong>–</strong> V: Performance issues <strong>–</strong> multithreading - multitasking <strong>–</strong> profile window <strong>–</strong> system memory issues <strong>–</strong><br />
optimizing memory -GPIB setup/ IBIC, 488 vs. 488.2 commands Strings GPIB serial poll byte. Timing of<br />
VI's Testing Device Status, File I/O-RS 232 RS 232Attribute nodes (graphs), Saving front panels Turning<br />
DAQ boards analog I/O Real-Time Control Systems - Timing issues oscilloscope/ function Generator, RC<br />
filter Real-Time Systems -<br />
(10 Periods)<br />
Reference Books:<br />
1. LABVIEW basics <strong>–</strong>I and II course books from National Instruments. Bangalore.<br />
2. Lisa K Walls, “ LABVIEW for everyone” PHI, 1996<br />
3. www.ni.com