CS1301 – Introduction to Computer Programming

Credit Hours: 2 + 1

Pre-requisite: None

Introduction:

CS1301 introduces the students to the realm of computing. The basic purpose of the course is to introduce the concepts of problem solving and program designing using a high-level programming language. Hence, the course primarily focuses on developing the concepts of program development with C being used as a tool for implementing these concepts. The lab portion also covers hardware interfacing using C to enable the students to apply their programming abilities to control electrical systems.

Contents:

1.       Introduction to Computers and Programming

History of Computing, Computer Hardware and Software, The Software Development Method

2.       Overview of C

Elements of C, Variables Declaration and Data Types, General Form of a C Program

3.       Top-Down Design with Functions

Building Programs from Existing Information, Library Functions, Top-down Design and Structure Charts, User-Defined Functions

4.       Control Structures

If, if else, and if else if, Nested if and multiple decisions, The switch statement, Loops, Nested Loops

5.       Pointers

Pointers and indirection, Functions with output parameters, Scope of Names, Debugging and Testing a Program System

6.       Arrays

Declaring and Referencing Arrays, Sequential Access of Arrays using For Loops, Array Elements as Function Arguments, Array Arguments, Searching and Sorting, Multi-dimensional Arrays.

7.       Strings

8.       Structures

Introduction, Structure Type Data as Input and Output Parameter, Functions with Structured Result Values, Problem Solving with Structures.

9.       Dynamic Data Structures

             a.Pointers and Dynamic Memory Allocation

             b.Linked Lists

10.    Recursion

11.    Hardware Interfacing (To be covered entirely in the lab portion)

Text Book: J R Hanly and E B Koffman, Problem Solving and Program Design in C, 7^th Edition

CS2302 – Algorithms and Data Structures

Credit Hours: 2 + 1

Pre-requisite:

Introduction to Computer Programming

Introduction:

CS2302 is the second programming course offered to Electrical Engineering students. The course builds up on
the basic knowledge gained in CS1301 by providing in-depth knowledge of data structures. The course also introduces the art and science of object-oriented programming and the data structures are implemented using object-oriented programming in C++.

Contents:

1.       C++ Basics

2.       Introduction to Object-Oriented Design

3.       Arrays, Linked Lists and Recursion

Arrays and Pointers, Dynamic memory allocation, One, Two and Three Dimensional dynamically allocated
arrays, Recursion: Basic concept, Exit condition, For loop vs recursion, Linked List: Basic Linked List operations, Doubly linked list, Linked List vs Arrays.

4.       Stacks and Queues

Stacks: Basic operations, Stacks through array, Stacks through linked list, Stacks and Recursion, Example
(Infix, PostFix, PreFix), Queues: Basic operations, Circular Queues, Priority Queues

5.       Binary Trees

Types, representation, Tree traversal, operations on binary trees.

6.       Sorting and Searching

Bubble Sort, Selection Sort, Quick Sort, Insertion Sort, Merge Sort, Binary search, Indexed Sequential Search

7.       Graphs

Types, representation, graph traversal, shortest path algorithm

8.
Hashing

Hash functions, Conflict resolution techniques.

Text Book and References:

1.Michael T. Goodrich, Roberto Tamassia, David M. Mount, Data Structures and Algorithms in C++. 2^nd Edition.

2.Gary J. Bronson, C++ for Engineers and Scientists, 3^rd Edition.

ME2201 – Engineering Drawing

Credit Hours: 1 + 1

Pre-requisite: None

Introduction:

The aim of the Engineering Drawing course is to generate and enhance the ability of the student to communicate engineering information and design by graphical means using conventional and
CAD tools. This will be achieved through the ability to visualize and understand the appropriate graphical methods for representing design concepts.

Contents:

1.       Introduction to Drafting

Types of Basic Engineering Graphics, Multi-view Drawings, Pictorial Drawings, Schematic Drawings

2.      Introduction to Conventional Drafting

Conventional Drafting Supplies, Conventional Drafting Equipment.

3.       Sketching Guidelines and Procedures

Line Conventions, Sketching Practices.

4.      Dimensioning Conventions

Systems of Dimensioning, Dimensioning Guidelines, Surface Finishing (Symbols and Types)

5.      Sectional Views

Cutting Plane, Section Lining, Section View Types

6.      Working Drawings

Detail Drawings, Assembly Drawings

7.       Pictorial Drawings

Isometric Drawing, Dimetric Drawings, Trimetric Drawings

Text Book and References:

1.       RS Rhodes & LB Cook , Basic Engineering Drawing.

2.      Paul Ross Wallach , Fundamentals of Drafting using AutoCAD LT.

3.      Engineering Design and Graphics with SolidWorks.

ME1102 – Workshop Technology

Credit Hours: 0 + 1

Pre-requisite: None.

Introduction:
ME1102 is a lab-based course to familiarize the students with tools and equipment in a workshop and developing the ability of using the workshop equipment proficiently and safely.

Contents:

1.      Organization of engineering workshop

2.      Safety in workshop

General principles of working, safety regulations, Concepts in electrical safety, Earthing concepts, electric shocks and treatment.

3.       Electrician

Use of tools used by electricians, wiring regulations, types of cables and electric accessories, wiring diagrams.

4.      Engineering materials

Uses and properties.

5.      Bench work and fitting

Hand tools, instruments.

6.      Carpentry:

Hand tools and working principles. Joints and fastenings: bolt, rivet, welding, brazing, soldering. Measurement and marking: for uniformity, circulatory, concentricity, etc.

7.      Blacksmith

Hand tools and working principles.

8.       Joints and fastenings:

Bolt, rivet, welding, brazing, soldering, measurement and marking: for uniformity,
circulatory, concentricity, etc.

9.       Standard metal cutting machine tools.

Text Book and References:

1.       Choudhury, Elements of Workshop Technology, Vol. 1

2.       Chapman, Workshop Technology, Part-I,II,III.

EE1401 – Linear Circuit Analysis

Credit Hours: 3 + 1

Pre-requisite: None

Introduction:

First electrical engineering course introducing the basics of elements and analysis of linear circuits.
The course covers basic circuit analysis techniques to analyze the steady
state and transient response of linear circuits to DC excitation.

Contents:

1.      Fundamentals of Circuits

Electric quantities, basic electric components, voltage and current sources, Ohm’s
law.

2.      Voltage and Current Laws

Kirchhoff\\\\\\\’s laws, Single loop circuits, single node circuits, series and parallel combination of sources, resistors in series and parallel, voltage and current dividers.

3.      Basic Circuit Analysis Techniques

Nodal analysis, loop analysis, linearity and superposition, source transformation, circuit theorems, maximum power, dependent sources, circuit analysis with dependent sources.

4.      Capacitors and Inductors

Inductor, capacitor, inductance and capacitance combinations, duality.

5.      Basic RL and RC Circuits

The source-free RL circuit, the source-free RC circuit, the unit step-function,
natural and forced response.

6.      The RLC Circuit

The source free RLC circuits, Step response of RLC circuits.

7.      Magnetically Coupled Circuits

Mutual inductance, linear transformer, ideal transformer.

Text Book and References:

1. W H Hayt, J E Kemmerly, Engineering Circuit Analysis, 8^th Edition

2. C K Alexander, M N O Sadiku, Fundamentals of Electric circuits, 3^rd Edition

EE2302 – Electrical Network Analysis

Credit Hours: 3 + 0

Pre-requisite: Linear Circuit Analysis

Introduction:

The course covers the transient and steady state response of linear circuits in response to AC excitation. This
includes single-phase and three-phase power systems, magnetically coupled circuits, frequency response and the concepts of resonance and resonant circuits, analysis of circuits in ­s-domain and two-port networks.

Contents:

1.       Sinusoid Steady-State Analysis

Introduction,the complex forcing function, phasors, impedance and admittance, phasor
diagrams.

2.       AC Circuit Power Analysis

Instantaneous power, average power, effective value of power, the power triangle.

3.       Polyphase Circuits

Introduction, YY, and delta-delta connections, Measurement of Three-Phase Power

4.       Complex Frequency and the Laplace Transform[1]

Complex frequency, the damped sinusoid, Laplace transform, inverse Laplace transform,
Laplace transform theorems.

5.       Circuit Analysis in s – domain

Z(s) and Y(s), Circuit Analysis in s ­–domain, Poles, zeros and transfer functions,
Convolution

6.       Frequency Response

Bode Plots, Series and Parallel Resonance, Filters

7.       Two-Port Networks

Text Book and References:

1.      W H Hayt, J E Kemmerly, Engineering Circuit Analysis, 8^th Edition

2.      C K Alexander, M N O Sadiku, Fundamentals of Electric circuits, 3^rd Edition

EE2425 – Electrical Machines

Credit Hours: 3 + 1

Pre-requisite: Linear Circuit Analysis

Introduction: EE2425 introduces the students to fundamentals of Electrical Machines. Being the only course in Electrical Machines offered to Electrical Engineering students it covers the breadth of AC as well as DC machines rather than covering the depths of DC and AC machines in two separate courses.

Contents:

1.       DC Machines

Principle and theory of operation of D.C. generator, constructional features of DC machines, characteristics of shunt, series and compound generators, Principle of operation of DC motor, Back EMF, torque equation, characteristics of shunt, series and compound motors, efficiency calculations.

2.      Transformers

Principle, constructional details of shell and core type transformer, EMF equation, No-load and on load operation, transformer tests, equivalent circuit.

3.      Induction motors

Construction and principle of operation, classification of induction motor, torque equation, torque slip characteristics, starting and speed control.

4.      Synchronous Motors

Construction and principle of operation – EMF equation–V curves – Synchronization

Text Book and References:

·        Stephen J. Chapman, Electric Machinery Fundamentals, 5^th Edition

EE2403 – Fundamentals of Electronics

Credit Hours: 3 + 1

Pre-requisite: Linear Circuit Analysis

Introduction:

EE2403 is the first course in a three-course sequence of courses in Electronics introducing the fundamentals
of electronic devices to the students.

Contents:

1.       Semiconductors

Brief introduction to semiconductor physics, Intrinsic and extrinsic semiconductors, Doping—P-type and N-type semiconductors.

2.      PN Junction Diode and applications

Behavior of PN junction without biasing, Biasing of PN junction Diode as a switch, Characteristic curves of diode, Half wave rectifier, Full wave rectifier—Center tapped and Bridged Clipper and clamper circuits, Zener diode as a voltage regulator, Linear power supplies, LEDs and Photodiodes

3.      Bipolar Transistors

Construction of BJTs (NPN, PNP), Working principle of NPN transistors, Introduction to transistor configurations (CB, CC, CE), Input and output static characteristic curves of Common Emitter (CE) configuration, Transistor approximations, DC biased CE circuits and load line, Transistor as a switch

4.      Field Effect Transistors

MOSFET’s construction and working principle, Regions of operation—Resistive, pinch-off and saturation, Qualitative I-V behavior, Quantitative analysis of MOSFET’s I-V characteristics, MOSFET biasing circuits—constant gate source and gate voltage divider configurations, MOSFET PSPICE models

Text Book and References:

·        A. S. Sedra, C. K. Smith, Microelectronic Circuits, 6^th Edition

·        Thomas L. Floyd, Electronic Fundamentals: circuits, devices, and applications. 8^th Edition

EE2404 – Electronic Circuit Design

Credit Hours: 3 + 1

Pre-requisite: Fundamentals of Electronics

Introduction:

Second electronics course introducing the students to small signal analysis and frequency response of
transistors, multistage amplifiers and power amplifiers.

Contents:

1.       BJT small signal analysis

Introduction to AC analysis, Introduction of two-port systems and parameters, Transistor models and determination of important parameters, Models of different transistor configurations of BJTs and their approximations, BJT’s PSPICE models, Effect of source and load impedance in a cascaded network of BJTs

2.       FET small signal analysis

Introduction to FET AC analysis, FET models and parameters, Models of different transistor configurations of Enhancement type MOSFETs and their approximations, MOSFET’s PSPICE models, Effect of source and load impedance in a cascaded network of MOSFETs

3.       Frequency response of Transistors (BJT and FET)

Introduction to frequency response, Logarithms and decibels, Introduction to frequency analysis—Bode
plot, Low-frequency response of Transistors (BJTs & FETs), Miller Effect capacitance, High frequency response of Transistors (BJTs & FETs), Multistage frequency effects.

4.       Multi-stage amplifiers

Introduction to multistage amplifiers (cascading), Cascode connection, Darlington pair, Current source
and mirror circuits—Wilson and Widlar sources, Current mirror circuits, Introduction to Differential pair of BJTs and MOSFET—detailed analysis of differential pair and its evolution to OPAMP should NOT be attempted here as it should be covered in a subsequent course. PSPICE models of compound configurations.

5.       Power amplifiers

Definition and amplifier types, Class A, B, C and D amplifiers their operations and circuits, Distortion and power considerations

Text Book and References:

·        A. S. Sedra, C. K. Smith, Microelectronic Circuits, 6^th Edition.

·        Thomas L. Floyd, Electronic Fundamentals: circuits, devices, and applications. 8^th Edition

EE1407 – Digital Logic Fundamentals

Credit Hours: 3 + 1

Pre-requisite: None.

Introduction:

Introductory course covering the fundamentals of digital systems including Boolean Algebra, Logic Gates, and
basic combinational and sequential circuits.

Contents:

1.       Binary Systems.

Digital Systems. Binary Numbers. Number Base Conversions. Octal and Hexadecimal Numbers. Complements. Signed Binary Numbers. Binary Codes.

2.      Boolean Algebra and Logic Gates.

Basic Definitions. Basic Theorems and Properties of Boolean Algebra. Boolean Functions. Canonical and Standard Forms. Digital Logic Gates.

3.      Gate-Level Minimization.

The Map Method. Product of Sums Simplification. Don\\\\\\\’t-Care Conditions. NAND and NOR Implementation.

4.      Combinational Logic.

Combinational Circuits. Analysis Procedure. Design Procedure. Binary Adder/Subtractor.
Decimal Adder. Binary Multiplier. Magnitude Comparator. Decoders. Encoders. Multiplexers.

5.      Synchronous Sequential Logic.

Sequential Circuits. Latches. Flip-Flops. Analysis of Clocked Sequential Circuits. State Reduction and Assignment. Design Procedure.

6.      Registers and Counters.

Registers. Shift Registers. Ripple Counters. Synchronous Counters.

Text Book and References:

·        M. Morris Mano, Digital Logic and Computer design. 4^th edition

EE2308 – Computer Architecture and Organization

Credit Hours: 3 + 0

Pre-requisite: Digital Logic Fundamentals

Introduction:

The course provides a comprehensive presentation of the architecture and organization of computers with special emphasize of the fundamental principles.

Contents:

      1.    The History of computers.

      2.     Quick Introduction of Number Systems, Signed and Unsigned arithmetic operations, Overflow in integer arithmetic operations.

      3.     Memory locations and addresses

      4.      Instructions and Instruction sequencing, Instructions execution, Input-output organization, Introduction into interfaces.

      5.      The memory system, Cache design.

      6.      Central Processing Unit, Princeton and Hardware architecture, CISC architecture, 8086 architecture details, RISC architecture, MIPS architecture details.

      7.      Pipelining, basic concept, pipelining hazards, forwarding and
interlocks.

      8.      Interrupts, Interrupts hardware, Enabling and disabling interrupts, Priorities, Stack and Queues, Handling multiple devices, Vectored Interrupts, Interrupt nesting, Simultaneous requests.

      9.      Direct access memory, Controllers, Bus arbitration, Centralized and distributed arbitration, Synchronous and asynchronous buses.

      10.   Interface circuits, Parallel Interface, Serial port, Standard input/output interfaces.

Text Book and References:

·        William Stalling, Computer Organization and Architecture.

EE2309 – Signals and Systems

Credit Hours: 3 + 0

Pre-requisite:

Differential Equations and Transforms

Introduction:

EE2309 is a foundation course introducing the analysis of continuous-time LTI systems in time as well as in
transform domain.

Contents:

1.       Introduction

Examples of physical systems and the importance of the course

2.      Continuous-Time Signals and Systems

Elementary Signal Operations, Signal Characteristics, Elementary Signals, Continuous-Time Systems and their Properties

3.      Analysis of Continuous-Time LTI systems in time-domain

Impulse response, sifting and convolution, properties of convolution, properties of continuous-time
LTI systems, Differential equation models, Natural response, system response to complex exponential inputs, block diagrams.

4.      Fourier series

Introduction, Exponential form of Fourier series, Fourier Series and Frequency Spectra, Properties of Fourier Series, System Analysis

5.      Fourier transform

Introduction, Fourier transforms of elementary signals, Properties of Fourier Transform, Applications of Fourier Transform, Energy and Power Density Spectrum.

6.      The Laplace Transform and s-Domain Analysis

Review, Properties of Laplace Transform, Response of LTI Systems, LTI Systems Characteristics.

Text Book and References:

·        C. L. Philips, J. H. Parr, Signals, Systems, and Transforms. 4^th Edition.

·        Simon Haykin, Signals and Systems, 2^nd Edition

EE2319 –Electromagnetic Field Theory

Credit Hours: 3 + 0

Pre-requisite: Complex Variables and Multivariable Calculus

Introduction:

EE2319 emphasizes on fundamental concepts of engineering electromagnetics and problem solving to develop the required foundation of further courses related to transmission lines and antenna.

Contents:

1.       Review of Vector Analysis

Vector Algebra, Coordinate Systems and Transformation, Vector Calculus.

2.      Electrostatics

Electrostatic Fields: Coulomb’s Law and Field Intensity, Electric Fields due to continuous Charge Distributions: Line charge, surface charge, Volume Charge, Electric Flux Density, Gauss’s Law –Maxwell’s Equation, Application of Gauss’s Law, Electric Potential, Relationship between E an V –Maxwell’s Equation, An electric Dipole and Flux Lines, Energy Density in Electrostatic Fields

Electric Fields in Material Space: Properties of Materials, Convection and Conduction Currents, Conductors, Polarization in Dielectrics, Dielectric Strength, Continuity Equation and relaxation time.

Electrostatic Boundary Value Problems: Poisson’s and Laplace Equations, Uniqueness Theorem, General Procedure for solving Poisson’s or Laplace Equations, Resistance and Capacitance (Parallel plate and coaxial capacitor)

3.
Magnetostatics

Magnetostatic Fields: Bio-Savart’s Law, Ampere’s Circuit Law –Maxwell’s Equations, Magnetic Flux Density –Maxwell’s Equation, Magnetics scalar and Vector Potentials.

Magnetic Forces, Materials and Devices:

Force due to Magnetic Fields, Magnetic Torque and Moment, Magnetic Dipole, Magnetization in Materials, Classification of Magnetic Materials, Inductors and Inductances, Magnetic Energy

4.      Time Varying Fields and Maxwell’s Equations

Faraday’s Law, Displacement Current, Time harmonic Fields, Maxwell’s Equations in Point form, Maxwell’s Equations in Integral form, Electromagnetic Wave propagation in the light of Maxewell’s Curl equations, Wave Equation, Solution of Wave equations, the Plane wave solution.[2]

Text Book and References:

·        William Hayt, Engineering Electromagnetics, 6^th Edition

EE2319 –Electromagnetic Field Theory

Credit Hours: 3 + 0

Pre-requisite: Complex Variables and Multivariable Calculus

Introduction:

EE2319 emphasizes on fundamental concepts of engineering electromagnetics and problem solving to develop the required foundation of further courses related to transmission lines and antenna.

Contents:

1.       Review of Vector Analysis

Vector Algebra, Coordinate Systems and Transformation, Vector Calculus.

2.      Electrostatics

Electrostatic Fields: Coulomb’s Law and Field Intensity, Electric Fields due to continuous Charge Distributions: Line charge, surface charge, Volume Charge, Electric Flux Density, Gauss’s Law –Maxwell’s Equation, Application of Gauss’s Law, Electric Potential, Relationship between E an V –Maxwell’s Equation, An electric Dipole and Flux Lines, Energy Density in Electrostatic Fields

Electric Fields in Material Space: Properties of Materials, Convection and Conduction Currents, Conductors, Polarization in Dielectrics, Dielectric Strength, Continuity Equation and relaxation time.

Electrostatic Boundary Value Problems: Poisson’s and Laplace Equations, Uniqueness Theorem, General Procedure for solving Poisson’s or Laplace Equations, Resistance and Capacitance (Parallel plate and coaxial capacitor)

3.
Magnetostatics

Magnetostatic Fields: Bio-Savart’s Law, Ampere’s Circuit Law –Maxwell’s Equations, Magnetic Flux Density –Maxwell’s Equation, Magnetics scalar and Vector Potentials.

Magnetic Forces, Materials and Devices:

Force due to Magnetic Fields, Magnetic Torque and Moment, Magnetic Dipole, Magnetization in Materials, Classification of Magnetic Materials, Inductors and Inductances, Magnetic Energy

4.      Time Varying Fields and Maxwell’s Equations

Faraday’s Law, Displacement Current, Time harmonic Fields, Maxwell’s Equations in Point form, Maxwell’s Equations in Integral form, Electromagnetic Wave propagation in the light of Maxewell’s Curl equations, Wave Equation, Solution of Wave equations, the Plane wave solution.[2]

Text Book and References:

·        William Hayt, Engineering Electromagnetics, 6^th Edition

MS3306 – Probability Methods in Engineering

Credit Hours: 3 + 0

Pre-requisite: Calculus

Introduction:

MS3306 introduces the basic concepts of probability and statistics along with their application in engineering.

Contents:

Introduction to statistical data, frequency distribution and graphical representation. Measures of central tendency and variation. Basic concepts of probability, simple combined and conditional probabilities, independent events, Baye\\\\\\\’s theorem and application. Introduction to random variables; discrete and continuous random variables. Discrete and continuous probability distributions (binomial, Poisson, normal, uniform and exponential) distributions and density functions ; expected values, mean, variance, standard deviation. Sampling distributions, estimation of parameters, testing of hypothesis and goodness of fit. Scatter diagram, linear regression , coefficients of correlation and determination; inferences.

Text Book and References:

·        Donald H. Sanders, Statistics: A first Course.

·        Sheldon M. Ross, Introduction to Probability and Statistics for Engineers and Scientists.

·        Alberto Leon-Garcia, Probability, Statistics and Random Processes for Electrical Engineering

EE3410 – Communication Systems

Credit Hours: 3 + 1

Pre-requisite: Signals and Systems

Introduction:

This course is structured as a senior-level course emphasizing fundamental communication
principles and the application of these principles to contemporary analogue and digital communication systems. Students learn basic concepts (both digital and analogue) associated with information, coding, modulation, and detection.

Contents:

1.       The Big Picture

Elements of a Communication System, Primary Communication Resources, Information Sources,
Communication Channels, Analog v/s Digital Communication

2. Amplitude Modulation

Introduction, Linear Modulation (DSB-SC, SSB, VSB), Frequency Translation, Frequency
Division Multiplexing.

3. Frequency Modulation

AngleModulation, Frequency Modulation (Narrowband and Wideband FM), Transmission
Bandwidth of FM Signals, FM Signal Generation, FM Signal Demodulation, The
Superheterodyne Receiver.

4. Pulse Modulation

Sampling, Pulse
Amplitude Modulation, Pulse Position Modulation and Pulse Duration
Modulation, Quantization, Quantization Noise, Pulse-Code Modulation, Line
Codes, Differential Encoding, Delta Modulation.

5. Noise in Continuous-Wave Modulation Systems

Signal to Noise Ratio, Noise in Linear Receivers using Coherent detection, Noise in AM Receivers using Envelope Detection (Large Carrier to Noise Ratio, Small Carrier to Noise Ratio), Noise in FM Receivers.

Text Book and References:

· Simon Haykin, Communication Systems, 4^th Edition.

· B. P. Lathi, Modern Digital and Analog Communication Systems

EE3417 – Microprocessor-Based Systems

Credit Hours: 3 + 1

Pre-requisite: Computer Architecture and Organization

Introduction:

This course introduces microprocessor architecture and microcomputer systems, including memory and input/output interfacing. Topics include assembly language programming, bus architecture, bus cycle types, I/O
systems, memory systems, interrupts, and other related topics. Upon completion, students should be able to interpret, analyze, verify, and troubleshoot fundamental microprocessor circuits and programs using appropriate techniques and test equipment.

Contents:

1.       Introduction to microprocessors

2.      Intel 8086 Architecture

3.      Intel 8086 Programming

4.      Introduction to memory devices

5.      Memory interfacing with 8086.

6.      Addressing modes

7.      Introduction to processor clock (8284)

8.      I/O interfacing techniques

9.      Introduction to PPI (8255)

10.    Processor Interrupts and the programmable interrupt controller (8259)

11.    Direct Memory Access and the DMA controller (8237)

12.    The bus interface

13.    ISA bus and PCI bus

Text Book and References:

·        Barry B Brey, The Intel Microprocessors, 8^th edition

EE3411 – Linear Control Systems

Credit Hours: 3 + 1

Pre-requisite:

Differential Equations and Transforms

Introduction:

Linear Control System consists of interactive curriculum using text, presentations
and laboratory based on Matlab`s Control and Simulink toolbox.

Contents:

1.      Introduction

The control problem and basic feedback structure, Brief review of Laplace Transform

2.      System Modeling

State space approach, transfer function approach, analogous systems, system modeling using MATLAB

3.      Signal Flow Graphs

Signal flow graphs, Mason’s Gain Formula, Modeling of DC motors in control systems

4.      Characteristics of feedback control systems

5.      Stability

Concept of stability and Routh stability criterion

6.      Performance of Feedback Systems

First order systems, Second order systems, Addition of poles and zeros in feedback control systems, Steady state error and analytical approach of PID Design.

7.      Root Locus Design and Analysis

The concept of roots locus, Root locus design and analysis, Controller design basics using root locus, examples of PD and Lead controllers, examples of Lag and Lag-Lead controllers.

8.
Frequency Response

Frequency response approach and Bode plots, Polar and Log-Modulus plot, transient and stability using frequency response approach

9.      Controller Design

Phase-lead, phase-lag, and lead-lag controllers.

Text Book and References:

·        M Gopal, Control Systems Principles and Design, 2^nd edition

·        Katsuhiko Ogata, Modern Control Engineering, Prentice-Hall, 2001.

·        Norman S. Nise, Control Systems Engineering, 6th Ed,

EE3306 – Instrumentation and Measurement

Credit Hours: 2 + 1

Pre-requisite:

Linear Integrated Circuits and Applications

Introduction:

EE3306 is a one-semester course in electronic instrumentation and measurement. The course provides an overview of instrumentation principles, physical principles and electrical characteristics for several common
instrument transducers. The course also covers electronic signal-conditioning circuits required to convert the electrical changes in the transducers to signal which can be interpreted accurately by a microprocessor.

Contents:

1.       The Instrumentation System

Application Domains, Importance of Engineering Design, Precision and Accuracy,Calibration,Dynamic
range: Noise floor to saturation, decibels, The ’signal plan’ diagram for an instrumentation systemSignal
to noise ratio, Measurements that are affected by the instrument.

2.       Sensors and Transducers

3.       Operational Amplifier based Instrumentation and its Imperfections

Offset voltage and drift, Bias current, Offset current, Power Supply Rejection Ratio, Common Mode Rejection Ratio, Reading the op-amp spec sheet, Design example

4.       Noise

Thermal noise, Noise voltage and current in op-amps, Noise calculation example, Noise measurement

5.       The need for signal conditioning

Amplification, Noise control,Bandwidth limiting (to limit noise), Distortion (of wave shape), harmonic generation, Linearity and signal compression, A-D converter step size, Impedance buffering.

6.       Analog to Digital Converters

Sampling and digital conversion artifacts,R-2R Digital-Analog Converter,Successive approximation A/D converter, Dual slope A/D Converter,Grounding to an A/D converter.

7.       Grounding, Decoupling and Shielding

Magnetic and electrostatic coupling and shielding, Current-voltage transformations to improve noise immunity, Introduction of noise by the ground, the ’guard’ connection, differential inputs, floating source to reduce noise, the noise sniffer, oscilloscope measurements of a noise problem, local power supplies, Grounding management in a mixed analog and digital system.

8.       Interfacing with Microprocessors/Microcontrollers using Labview

Text Book and References:

·        Robert A. Witte, Electronic Test Instruments : Analog and Digital Measurements 2^nd Edition, 2002

·        David A. Bell, Electronic Instrumentation and Measurement, 2^nd Edition, Volume 1 and Volume 2

EE3320 – Microwave and Antennas

Credit Hours: 2 + 1

Pre-requisite: Electromagnetic Field Theory

Introduction:

The course discusses the principles of transmission lines and waveguides, analysis of microwave network and its application to impedance matching and tuning. The course also covers principles and design of microwave resonators, passive components, and filters. Concepts of active microwave circuits and their application to the design and analysis of microwave amplifiers and principles and design of microwave antennas are also discussed.

Contents:

1.      Transmission Line (TL) Theory

Lumped Element circuit model for a TL, Wave Propagation on a TL, Propagation Constant, Impedance and Power flow on a TL, Terminated lossless TL with special cases of Open and Short Circuited lines, Concept of
Reflection and VSWR, Derivation of Smith Chart and its basic operations, Generator and Load mismatches including concept of conjugate matching, Wave propagation in lossy transmission line.

2.      Field Analysis of TLs and Waveguides

Classification of Wave Solutions: TEM Waves, TE, TM waves, Parallel Plate Waveguides, Rectangular Waveguides, Coaxial Line, Microstrip Line.

3.      Impedance Transformation and Matching

Matching with Lumped Elements: Analytical and Smith Chart Solutions, Matching with distributed components: single stub, double stub, quarter wave transformers

4.      Microwave Network Analysis based on Scattering [S] Matrix

Formulation of S-Parameters, Evaluation of S-Parameters and Application of S-Parameters

5.      Passive Microwave Devices

Basic Properties of Dividers and Couplers, T-Junction Power Divider, Wilkinson Power Divider, 90° Quadrature Hybrid, 180 ° Ratrace Hybrid

6.      Active Microwave Devices

PIN diodes, Gunn Diodes, Impatt Diodes

7.      EM Propagation in Free Space and Basic Antenna Parameters

Wave propagation in free space, Radiation Patterns, Beam Area, Beam Efficiency, Directivity and Gain, Antenna Aperture, Antenna Field Zones, Polarization

8.      Antenna Family

Loop Antennas, Dipoles, Slots, Waveguide Antennas, Reflectors, Microstrip Patch Antennas

Text Book and References:

·
David. M. Pozar , Microwave Engineering. 4^th Edition

·
John D. Krauss , Antennas for All Applications. 2^nd Edition

EE3405 – Linear Integrated Circuits and Applications

Credit Hours: 3 + 1

Pre-requisite: Electronic Circuit Design

Introduction:

The course covers the basic concepts in the design of electronic circuits using linear integrated
circuits and their applications in the processing of analog signals.

Contents:

1.       Operational Amplifiers : Basics, Issues and Circuits-around-it

OPAMP basics and characteristics of an ideal amplifier, Concept and type of feedbacks, Feedback amplifier—phase and frequency considerations, Ideal OPAMP—inverting and non-inverting amplifier, Basic OPAMP circuits—summer, comparator, integrator, differentiator etc.

2.       Differential pair

DC and AC analysis of Differential pair circuit, Brief overview of OPAMP internal circuitry, OPAMP
performance and specification, i) DC offset parameters—input and output bias/offset voltage and currents, ii) Common mode and power supply rejection ratios, iii) AC parameters—gain-bandwidth, slew rate, maximum frequency etc.

3.       Overview of complete two-stage Opamp circuit

MOSFET based opamp and its issues, BJT based opamp and its issues, Understanding of signal-flow from input stage to the output stage to achieve the desired properties of the opamp

4.       Active filters

Fundamentals of filters—low, high, band pass and band stop filters, Filter Transmission and mapping of
pole and zeros to circuits, first order filters with passive and active components, Response and design of Second order filters —Butterworth and Chebyshev filter approximation, Two-Integrator Based BiQuad, Tow-Thomson topology, KHN topology,, Quality factor and bandwidth considerations

5.       Linear and Non-linear Oscillators

Oscillationcriterion and operation, understanding positive feedback, Phase shift oscillator, Wien-bridge
oscillator, Tuned oscillator circuit, Crystaloscillator, Multivibrators, 555-timer ,astable and monostable operation

6.       Data Converters

Why Digital to Analog and Analog to Digital conversion, Types of DACs—R-2R, weighted R, C-2C ladders, Types of ADCs—single slope, dual slope, successive approximation register, Flash-type, Applications of commercial DAC and ADC ICs, Performance parameters—resolution, conversion time, Linearity error, differential linearity error, monoticity.

7.       Overview of Timing Circuits

PLLs and DLLs

Text Book and References:

·        A. S. Sedra, C. K. Smith, Microelectronic Circuits, 6^th Edition.

·        Analysis and Design of Analog Circuits by Gray and Mayer, 5^th edition.

EE4312 – Digital Communication

Credit Hours: 3 + 0

Pre-requisite:

Communication Systems

Introduction:

EE4312 introduces to the student the fundamentals of the theory of digital communications and coding. The
course will provide in-depth knowledge of Digital transmission of information across discrete and analog channels.

Contents:

1.       Introduction

Elements of a digital communication system, communication channels

2.       Source Coding

Sampling, quantization and PCM, entropy and mutual information, coding for discrete memoryless sources.

3.       Characterization of Communication Signals and Systems

Representation of bandpass signals and systems, signal space representations, representation of digitally modulated signals

4.       Optimum Receiver for AWGN Channel

Optimum receivers, performance of optimum receiver for memoryless modulation

5.       Nyquist Pulse Shaping

6.       Error Correction Codes and Chanel Capacity

Block coding, convolution coding, channel capacity.

Text Book and References:

· J. Proakis, Digital Communications, 5th edition.

· B. Sklar, Digital Communications: Fundamentals and
Applications

EE4313 – Wireless and Mobile Communication

Credit Hours: 3 + 0

Pre-requisite: Communication Systems

Introduction:

The course covers the basic concepts in the design of electronic circuits using linear integrated
circuits and their applications in the processing of analog signals.

Contents:

1. Overview

2. Fundamentals of Cellular Systems:

The cellular concept, basic building blocks of cellular systems, handoffs, power control, traffic engineering.

3. Propagation Aspects

Antennas, large-scale effects, small-scale effects, propagation models.

4. Speech Coding

Introduction to speech codecs that are used in mobile communication systems.

5. Modulation Techniques

Digital modulation techniques, spread spectrum modulation (direct sequence and frequency hopping), orthogonal frequency-division multiplexing (OFDM).

6. Mitigation Techniques

Equalization, diversity, channel coding.

7. Multiple Access Techniques

Frequency division multiple access, time division multiple access, code division
multiple access and random access techniques.

8. Wireless Standards and Systems

GSM, IS-95, UMTS, wireless LANs, Bluetooth, WiMAX.

Text Book and References:

· Theodore Rappaport, Wireless Communications: Principles and Practice, PearsonEducation Inc., 2nd edition

· S. Haykin and M. Moher, Modern Wireless Communications

EE4414 – Computer Communication Networks

Credit Hours: 3 + 1

Pre-requisite: Communication Systems

Introduction:

The course provides students with a theoretical and practical base in computer networks issues enabling them to pursue higher studies in computer networks.

Contents:

1.       Introduction

What is the Internet, What is a protocol? Network Edge, Network Core, and Network Access & Physical
Media, Delay and Loss in Packet-Switched Networks, Protocol Layers and Their Service Models Internet Backbones, NAPs and ISPs, Brief History of Computer Networking and the Internet.

2.       Application Layer

Principles of Application Layer Protocols, The World Wide Web: HTTP, File Transfer: FTP, Electronic Mail in the Internet, The Internet’s Directory Service: DNS

3.       Transport Layer

Transport-Layer Services and Principles, Multiplexing and Demultiplexing Applications, Connectionless
Transport: UDP, Principles of Reliable of Data Transfer: TCP case study, Principles of Congestion Control.

4.       Network Layer

Introduction and Network Service Models, What is Inside a Router? IP: the Internet Protocol, Routing Algorithms, Hierarchical Routing, Routing in the Internet

5.       Link Layer and LANs

Link Layer: Introduction & Services, Multiple Access Protocols and LANs, LAN Addresses and ARP, Ethernet, Hubs, Bridges and Switches, PPP: the Point-to-Point Protocol, Link Virtualization: ATM

6.       Wireless and Mobile Net

Wireless Links & Network Characteristics, Wireless LANs: IEEE 802.11, WPAN & Bluetooth.

Text Book and References:

· J. F. Kurose and K. W. Ross, Computer Networking: A Top-Down Approach featuring the Internet.

· Andrew S. Tanenbaum, Computer Networks 3rd ed

EE4415 – Transmission
and Switching Systems

Credit Hours: 3 + 1

Pre-requisite: Computer Communication Networks

Introduction:

The course equips the students with skills and knowledge of the current and future telecommunication networks.

Contents:

1.       Development of Telecommunication

2.       Telecommunication Transmission

3.       Telecommunication Traffic

4.       Telecommunication Switching Systems

5.       Signaling techniques

6.       Public Switched Data networks (PSDN)

7.       Integrated Services Digital Network (ISDN)

Text Book and References:

· J. E. Flood, Telecommunication Switching, Traffic and Networks

· V. S. Bagad, Telecommunication Switching Systems and Networks

EE4416 – Digital
Signal Processing

Credit Hours: 3 + 1

Pre-requisite: Signals and Systems

Introduction:

The course covers the basic concepts in the design of electronic circuits using linear integrated circuits and their applications in the processing of analog signals.

Contents:

1.       Introduction

2. Discrete-time Signals and Systems

Properties of linear time-invariant systems, Convolution description of linear time-invariant systems, Analytical and numerical evaluation of convolution, Linear constant-coefficient difference equations.

3. The z-transform

The z-transform and its inverse, Properties of the z-transform, System function of LTI systems, Pole-zero locations and time-domain behavior, The one-sided z-transform.

4. Fourier Representation of Discrete Signals

Sinusoidal signals and their properties, Fourier representation of continuous-time signals, Fourier representation of discrete-time signals, Summary of Fourier series and Fourier transforms, Properties of the discrete-time Fourier transform.

5. Transform Analysis of LTI Systems

Response of LTI systems in the frequency domain, Distortion of signals passing through LTI systems, Frequency response for rational system functions, Dependence of frequency response on poles and zeros, Relationship between magnitude and phase responses, Invertibility and minimum-phase systems, All-pass systems

6. Sampling of Continuous-time Systems

Ideal periodic sampling of continuous-time signals, Reconstruction of a band-limited signal from its samples, The effect of undersampling: aliasing.

7. Discrete Fourier Transform

The Discrete Fourier Transform (DFT), Sampling the Discrete-Time Fourier Transform. Properties of the Discrete Fourier Transform, Linear convolution using the DFT, Fourier analysis of signals using the DFT, Direct computation of the Discrete Fourier Transform, Decimation-in-time FFT algorithms, Decimation-in-frequency FFT algorithms

8. Design of FIR Filters

FIR filters with linear phase, Design of FIR filters by windowing and frequency sampling.

Text Book and References:

· J. G. Proakis, D. K. Manolakis, Digital Signal Processing:
Principles, Algorithms, and applications. 4^th Edition.

EE4321 –Industrial Control and Automation

Credit Hours: 2 + 1

Pre-requisite: Linear Control systems

Introduction:

The course covers the basic concepts in the design of electronic circuits using linear integrated circuits and their applications in the processing of analog signals.

Contents:

1.       Introduction to Factory Automation

2.       Intrumentation, Sensors, Field Instruments

3.       Actuators including electrical, pneumatic and
hydraulic

4.       Switch gears including special function relays,
MCCB, MCB & ACB

5.       Industrial electrical wiring, schematics &
symbols

6.       Industrial Interfaces, RS-232, RS-485, CAN, Profibus

7.       Introduction
to Sequence/Logic Control and Programmable Logic Controllers

8.       The
Software Environment and Programming of PLCs

9.       Formal
Modeling of Sequence Control Specifications and Structured RLL Programming

10.    Programming of
PLCs: Sequential Function Charts

11.    The PLC
Hardware Environment

Text Book and References:

· Jon Stenerson, Industrial Automation and Process Control.

EE4422 – Robotics

Credit Hours: 3 + 1

Pre-requisite: Engineering Mechanics

Introduction:

An introductory course in Robotics covering rigid motion analysis, robot kinematics, sensors and motion planning of robots.

Contents:

1.Fundamentals

What is a Robot? Classification of Robots. What is Robotics? History of Robotics. Advantages and Disadvantages of Robots. Robot Components. Robot Degrees of Freedom. Robot Joints. Robot Coordinates. Robot Reference Frames. Programming Modes. Robot Characteristics. Robot Workspace. Robot Languages. Robot Applications. Other Robots and Applications. Social Issues.

2.Robot Kinematics: PositionAnalysis.

Robots as Mechanisms. Matrix Representation. Homogeneous Transformation Matrices. Representation of Transformations. Inverse of Transformation Matrices. Forward and Inverse Kinematics of Robots. Denavit-Hartenberg Representation of Forward Kinematic Equations of Robots. The Inverse Kinematic Solution of
Robots. Inverse Kinematic Programming of Robots. Degeneracy and Dexterity. The Fundamental Problem with the Denavit-Hartenberg Representation.

3.Differential Motions and Velocities.

Differential Relationships. Jacobian. Differential Motions of a Frame. Interpretation of the Differential Change. Differential Changes Between Frames. Differential Motions of a Robot and Its Hand Frame. Calculation of the Jacobian. How to Relate the Jacobian and the Differential Operator. Inverse Jacobian.

4. Dynamic Analysis and Forces

Lagrangian Mechanics: A Short Overview. Effective Moments of Inertia. Dynamic Equations for Multiple-Degree-of-Freedom Robots. Static Force Analysis of Robots. Transformation of Forces and Moments Between Coordinate Frames.

5. Trajectory Planning

Path vs. Trajectory. Joint Space vs. Cartesian-Space. Basics of Trajectory Planning. Joint space trajectory planning, Cartesian space trajectories.

Text Book and References:

· Saeed B. Niku, Robotics

· H.Asada and J. Slotive, Robot Analysis and Control

EE4423 – FPGA-Based System Design

Credit Hours: 3 + 1

Pre-requisite: Digital Logic Fundamentals

Introduction:

The course enables the students to design HDL-based digital systems, use Finite State Machines for the design of control units of sequential systems, test designs using verification techniques like test benches, and implement these designs on an FPGA or CPLD prototyping board.

Contents:

1. Introduction to Digital System Design

Why we need VHDL? Device technologies for hardware implementation and their comparison w.r.t. area,
speed, power, cost. Full-Custom ASIC, Standard-cell ASIC, Gate-array ASIC, CPLD, FPGA. System representation – behavioral, Structural, Physical. Level of Quick

2. Overview of Hardware Description Languages

Basic VHDL through even-parity example. Entity, Architecture, Signals. Basic Language constructs of VHDL,
Skeleton of basic VHDL program, Lexical elements and program format, Comments, reserved words, Identifiers, Numbers and characters, VHDL objects, Data types and Operators, Test Bench.

3. Concurrent Signal Assignment Statements in VHDL

Simple signal assignment concurrent, Conditional signal assignment statements, Select signal assignment statements, Conditional v/s select assignment statements.

4. Sequential Statement of VHDL

Introduction to Processes, Wait statements, Sensitivity list, Signal v/s variables, Loops, Passing information between processes. Combinational circuit design: practice.

5.       Sequential circuit design: Principle

Basic memory elements, Basic synchronous circuit model, Basic memory elements in VHDL, Simple design
examples, RAM/ROM instantiation, Arbitrary sequence counter, Sequential circuit design: Examples, One
segment coding style, Use of variables in sequential circuit design.

6. Finite State Machine: Principle and Practice

FSM overview, FSM representation, Moore v/s Mealy FSM, Examples: Memory controller, Bit Sequence Detector, Edged detection circuit, Manual translation of FSM to Boolean equations, Nickel Dime Vending machine example, State minimization, VHDL description of an FSM, State Assignment.

7. FSM-D

Introduction, Overview of FSM-D, Basic FSMD block diagram, FSMD design of a repetitive-addition multiplier, Multi-segment VHDL description of an FSMD, Examples: FSMD of a GCD Circuit.

8.
Synthesis of VHDL Code

Timing analysis, Timing Hazards. Timing analysis of sequential synchronous circuits

9. Hierarchical Design in VHDL

Introduction, Components, Generics, Configuration, Other supporting constructs, Structural description, Configurations

Text Book and References:
EVITA – Enhanced VHDL Tutorial with Applications.

RTL Hardware Design Using VHDL – Coding for Efficiency, Portability and Scalability. Pong P Chu, 2006.

EE4324 – Embedded System Design

Credit Hours: 3 + 1

Pre-requisite: Microprocessor-based Systems

Introduction:

The course introduces the students to embedded system designing using microcontrollers.

Contents:

     1. Introduction

Introduction to ESD, Design Methodologies, Verification, Reliability, Safety, Security, Market survey, Time-to-market, NRE, Fabrication cost, Consumer Electronics, etc

     2. Hardware Architecture

CPU Internal architectures of RISC, CISC, VLIW, SuperScaler, Thread Level Parallelism, Examples MIPS, Pentium, PowerPC, TriMedia etc. Quick introduction about Pipelining. Details about Dynamic Scheduling.

     3.Memory Hierarchy

Registers, Cache, Virtual memory, SD Card, Hard Disk, etc. More details and internal working of Cache and Virtual Memory.

     4. Peripherals

Peripherals (Inputs and Outputs), Communication Protocols, I2C, PCI, HDMI, VGA, RS-232, etc

     5. Software

Programs for Embedded Computers, Compiler/Manual optimization techniques, Static Scheduling, Register Renaming, Loop Unrolling, writing code to optimize cache utilization, Main Memory Oriented optimization, Instruction Memory oriented optimization.

     6. Performance Analysis

How to measure/analyse the performance of the programs, Embedded System

     7.Operating System

Role of Operating Systems in ESD, Role of RTOS, Difference between OS and RTOS, Example RTOS, Brief introduction about the internal working of OS in process management, file system management, memory
management, allocation of resources, etc. Describe benefits of OS for ESD. In which scenarios OS is not required.

     8.Hardware Architecture

Multi-processor based Systems, Many-core architecture, Internal architecture details, NoC, Network topologies.

     9. PCB Design

Available tools, major design considerations, etc

     10. Applications

Discuss two high-end (Interesting) applications of ESD regarding to Image processing, Video processing, Networking, etc

     11. ESD boards

Discuss two high-end ESD boards. Discuss the hardware architecture features. , software, OS, PCD Design of these boards. e.g. DSP Kits, Rasberry PI,

Text Book and References:

·
Wayne Wolf, High Performance Embedded Computing Frank Vahid, Embedded Systems Design, A Unified Hardware/Software Introduction.

EE3327 – Power Electronics

Credit Hours: 3 + 1

Pre-requisite:

Electrial Machines, Electronic Circuit Design

Introduction:

The course introduces the students to power electronics and its applications.

Contents:

1.       Introduction

Applications of Power Electronics, Difference of Power electronics from Low-Power Analog Electronics,
Switches, Power Diodes and SCRs.

2.       Diode Rectifiers

Single-phase half wave with R-Load, Single-phase half wave with RL Load, Single Phase Full-Bridge
Rectifier with DC link capacitive filter, Three-Phase Full Bridge Rectifier with DC Link Capacitive Filter.

3.       AC to DC Controlled Converters

Single-Phase Fully controlled, Three-Phase Half Wave, Three Phase Fully Controlled, Limitation of Line Commuted Converters, Single Phase Unity Power Factor Converter, Bidirectional Power Converters.

4. DC to DC Power Converters

Limitation of Linear Power Supplies, Switched Power Power Supplies (Buck, Buck-Boost, Boost
Cuk, Fly-Back and Forward Converters) and their transfer functions.

5. DC to AC Power Converters

Operating Principle of Inverters, Half Bridge, Full Bridge, Three-Phase Six-Step Operation, Voltage Control, PWM Techniques.

Text Book and References:

·Erikson, Fundamentals of Power Electronics, 2^nd
edition

·NED Mohan, Power Electronics: Converters, Applications, and
Design.

·NED Mohan, Power Electronics: A First Course.

ME1303

Engineering Mechanics

3 + 0

Pre-requisite: None

Introduction: Introductory course in Mechanics.

Contents:

DYNAMICS

1. Measurements and units

Measurement errors, precision and accuracy, S.I. units.

2. Kinematics of a particle

Rectilinear motion and its equations, distance-time and velocity-time graphs, and their use in problem solving, general curvilinear motion and its vectorial equations, motion of a projectile.

3. Dynamics of a particle

Newton’s second law for general curvilinear motion, force analysis involved problem solving.

4. Work and energy methods

Work done by different kinds of forces (gravity, spring force, friction etc.), work-energy principle and its applications, power and efficiency, conservative forces and potential energy.

5. Momentum methods

Linear momentum for a particle and a system of particles, impulse, conservation of linear momentum, angular momentum and its relation to torque, conservation of angular momentum.

6. Planar kinematics of rigid bodies

Translation, rotation and general plane motion of rigid body, equations of motion as applied to planar motion of rigid bodies.

7. Planar dynamics of rigid bodies

Moment of inertia, radius of gyration and parallel axis theorem, dynamical equations of motion, the work of a force and of a couple, conservation of energy

8. 3-D kinematics and dynamics of rigid bodies

Equations of general motion of a rigid body in space, angular momentum and dynamical equations of motion.

9. Vibrations

Undamped free and forced vibrations, energy methods, damped free and forced vibrations.

STATICS:

10. Recap of vector arithematic

11. Addition of a system of coplanar forces

12. Addition of a system of non-coplanar forces

13. Equilibrium of a particle under coplanar forces

14. Equilibrium of a particle under non-coplanar forces

15.    Moment of force and equilibrium of a rigid body

Text Book and References:

· Russell C. Hibbler, Engineering
Mechanics: Statics (13th Edition), Prentice Hall (2012)

· Russell C. Hibbler, Engineering Mechanics:
Dynamics (13th Edition), Prentice Hall (2012)

· Anthony Bedford and Wallace Fowler, Engineering
Mechanics: Dynamics , Addison-Wesley (1995)

ME3306

Engineering
Thermodynamics

3 + 0

Pre-requisite: None

Introduction:

An introductory course in thermodynamics that provides a solid foundation for electrical engineering
students and create a foundation for mechatronics students for further study in thermofluids area.

Contents:

1.
Introduction to Thermodynamics

2.
Energy and the First Law of Thermodynamics

3.
Evaluating Thermodynamic Properties

4.
Control Volume Energy Analysis

5.
Second Law of Thermodynamics and Entropy

6.
Vapor Power Cycles

7.
Gas Power Cycles

Text Book and References:

· T. D. Eastop & McConkey, Applied Thermodynamics for Engineers & Technologists

· Moran and Shapiro, Fundamentals of Engineering Thermodynamics 7^th Edition