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Ece (Eee) F311

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SUMMER SEMESTER 2023-2024

Course Handout Part II


Date: 28-05-2024
In addition to part-I (General Handout for all courses appended to the time table) this portion gives further
specific
details regarding the course.

Course No. : ECE F311 / EEE F311


Course Title : Communication Systems
Instructor-in-Charge : Prof. Pranay Agarwal

Course Description:
Analysis and design of communication systems; analog and digital modulation and demodulation, frequency conversion,
multiplexing, noise and distortion; spectral and signal-to-noise ratio analysis, probability of error in digital systems, spread
spectrum. Introduction to the basic principles of the design and analysis of modern digital communication systems. Topics
include source coding, channel coding, baseband and passband modulation techniques, receiver design, and channel
equalization.

Scope and Objective of the Course:

This course intends to cover the basic understanding of functionalities of various block-sets involved in communication
system. The topics like Analog to Digital conversion, Pulse coding, Modulation (Analog and Digital, Baseband and
Bandpass), source coding, channel coding, Multiple access, Multiplexing techniques, Spread spectrum will be covered
with appropriate detail and mathematical description. Important topic like Information theory and its fundamental limits
will be emphasized to appreciate the concepts of digital communication. Students will be introduced to the functioning of
modern communication systems and how they perform in the presence of noise. Students will be given assignments on
communication system modeling using MATLAB. The laboratory component involves system design and simulation
exercises using MATLAB and Simulink and experiments based on HW boards. Advance/application areas like wireless,
optical, satellite, acoustic communication will be covered towards the end. Students are expected to have sound
understanding of Signals and systems, Mathematics, Electromagnetic Field theory

Textbooks:
T1 Communication Systems by Simon Haykin (3rd or 4th Edition) John Wiley and Sons
T2 Digital Communications by John G. Proakis and Masoud Salehi (5th Edition) TMH
T3 B.P. Lathi and Zhi Ding, Modern Digital and Analog Communication Systems, 3rd OR 4th Edition, Oxford
University Press, 2010

Reference books
R1. K. Sam Shanmugam, Digital and Analog communication systems, John Wiley & Sons
R2. DIGITAL COMMUNICATIONS Fundamentals and Applications: ERNARD SKLAR and Pabitra Kumar Ray;
Pearson Education 2009, 2/e
Course Plan:

Sl. Topics to be covered Learning Objectives Ref. to Book No. of


No Lectures

1 Overview of the History of electronic communications, blocks of a T1& 1


course, introduction to typical communication system, Electronic T2:Chapter 1
communication Communication Channels, twisted pair, cable,
systems. wave guide, wireless channels, need for
modulation, concept of a carrier, analog and digital
communication concepts.
2 Deterministic and Signals, nature of signals, Review of energy and T1: Chapters 2 2
random signals and power signals, correlation functions, power and & 3 T2:Chapter
their properties energy spectral densities, Fourier series and 2
Fourier Transforms, signal distortions. Real world
signals, pure, distorted and noise corrupted signal
examples, typical BW of various signals.
3 Random variables, Recap of Probability, Random variables & T1:Chapter 8,9 3
processes and Noise processes, statistical averages, Power spectral T2:Chapter 5
density, Gaussian process, Noise, Nature of noise,
Sources of Noise, white noise, KTB, Noise Figure R3:Chapter 5
and Noise temperature, calculations, Signal-to-
Noise ratio.
4 Transmission and Different Amplitude Modulation Techniques: T1:Chapter 4 5
reception of analog DSB-SC, SSB-SC, VSB, AM with carrier: BW T2:Chapter 3,6
Signals: Amplitude requirements of above modulation schemes.
modulation (AM) Circuits for Generation and demodulation. Noise R2:Chapter 7
performance of different AM systems. Frequency
Division multiplexing, Super heterodyne
Receivers, Practical circuits
5 Transmission and Angle modulation, FM transmitter and receivers, T1:Chapter 5 4
reception of analog interference and bandwidth considerations, T2:Chapter 4,6
Signals: Angle comparison of AM and FM, FM generation and
Modulation Phase & demodulation, Noise performance of different R2:Chapter 7
Frequency modulation Angle Modulation systems.
6 Digital Representation Sampling theorem, aliasing, quantization and T1:Chapter 6 4
of Analog Signals and encoding, PAM, TDM, PPM, PWM, Quantization, T2:Chapter 7
Pulse Modulation PCM, Delta Modulation
R2:Chapter 10
7 Baseband Transmission Line codes, NRZ etc, Inter Symbol Interference T1:Chapter 7 4
of Digital Signals (ISI), eye diagram, Nyquist Criterion for T2:Chapter 8
Distortionless transmission, pulse shaping,
equalization
8 Baseband Reception of Probability of error due to Noise, detection of T1:Chapter 10 4
Digital Signals and digital signal in noise, threshold determination, Bit R3:Chapter 3
Noise performance Error Probability concepts, Matched Filter, bit
Energy and BER Vs Bit Energy curves
9 Band-Pass transmission Band-Pass Transmission Model, Binary PSK ,FSK T2:Chapter 9 5
of Digital signals and QAM, M-Array Data Transmission Systems, T1:Chapter 10
Noise performance of PSK & FSK Systems
R3:Chapter 4
R2:Chapter 8

10 Digital receiver design Goals of Communication system designer, Error R3:Chapter 9 4


& performance probability plane, Nyquist bandwidth, Shannon-
analysis. Hartley capacity theorem, bandwidth-Efficiency
plane, BW efficiency of different modulation
schemes, Modulation & coding trade-offs,
Designing digital communication systems,
Modulation & coding for Bandwidth limited
channels
11 Introduction to Spread Concept of spread spectrum, PN sequences and T1: Chapter 11 2
spectrum systems their use in communication systems, R3:Chapter 12
12 Emerging Trends in A brief overview of different communication Supplementary 2
Communication technologies notes
Systems: Optical and
Mobile
communications.
Total Number of Lectures 40

Laboratory component: Laboratory exercises will involve simulations using MATLAB. Also, experiments will be
conducted using HW boards, Signal Sources, Oscilloscopes & spectrum analyzer.

Evaluation Scheme:

Component Duration Weightage Marks Date & Time Nature

Mid-Sem Exam 90 min 20 % 60 25th June, 3:30-5 Closed Book


pm
30 min 13 June and 18 July
2 Quizzes 10% 30 Closed Book
(each) 2024
Open Book
Regular Lab Component 2 Hrs each 15% 45 As per time table (Lab attendance and
performance)

Home Assignment - 5% 15 - Open Book

Closed Book
Final Lab Exam 10% 30 13 July 2024 (Experiment to be
performed & viva-voce)

Comprehensive Exam 3 Hrs 40% 120 19 July 2024, 2:30- Closed Book
5:30 pm

Total 100% 300

Chamber Consultation Hour: Will be announced in the class.


Notices: Notices concerning this course will be on CMS.

Make-up Policy: No make-up is allowed.

Academic Honesty and Integrity Policy: Academic honesty and integrity should be maintained by all the students
throughout the semester and no type of academic dishonesty is acceptable.

Prof. Pranay Agarwal


INSTRUCTOR-IN-CHARGE

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