Course Code:

ELEC 21513

Title:

Digital Electronics

Pre-Requisites:

Co-Requisites:

ELEC 21521

Learning Outcomes:

At the end of the course, the student will be able demonstrate basic knowledge on digital logic gates and their uses in simple logic circuits.

Course Content:

Laws and rules of Boolean Algebra, De Morgan’s theorem, Number Systems and conversions, Binary arithmetic, Logic gates, Logic implementation, Gate universality, Truth tables, Karnaugh map simplification, sum-of-products (SOP) & product-of-sums (POS) minimization, Functions of combinational logic (half and full adders, parallel adders) comparators, decoders, encoders, multiplexers, demultiplexers), Multivibrators: astable, monostable, bistable: latches, Flip-Flops (Set-Reset, Data / delay, Toggle, JK, synchronous, asynchronous), Sequential circuits (counters in sequential system, synchronous and Asynchronous counters, shift registers), arithmetic logic unit (ALU).

Method of Teaching and Learning:

Lectures, assignments, seminars and student-centered discussions.

Assessment:

End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:

* Floyd T. L. (2009), Digital Fundamentals, 10th Edition, Prentice-Hall.

* Mano M.M. and Kime C.R. (2004), Logic and computer design fundamentals, Volume 1, Pearson/ Prentice-Hall.

* Holdsworth B. and Woods R. C. (2002). Digital system design, Newnes Publications.

* Prabhakar S.& Shilpa S. , Digital Electronics (2012), Nandani Prakashan Pvt. Ltd.

Course Code:

ELEC 21521

Title:

Digital Electronics Laboratory

Pre-Requisites:

Co-Requisites:

ELEC 21514

Learning Outcomes:

At the end of the course, the student will be able to demonstrate the handling of electronic components and related equipment of basic digital electronics and develop skills of writing technical reports based on analysis of experimental data.

Course Content:

Characteristics of AND, OR, NAND, NOR, EX-OR, EX-NOR Logic gates, Combinational Logic circuits, Adders, Flip-Flops, Counters, Registers etc.

Method of Teaching and Learning:

Three hours of laboratory classes per week.

Assessment:

Continuous assessments, the practical examination at the end-of-course and the presentation.

Recommended Reading:

* Floyd, T. L. (1992). Digital Fundamentals, 6th Edition, Prentice-Hall International.

* Holdsworth, B. and Woods, R. C. (2002). Digital system design, Newnes Publications.

Course Code:

ELEC 22534

Title:

Signal Processing and Data Acquisition

Pre-Requisites:

Co-Requisites:

ELEC 22541

Learning Outcomes:

At the end of the course, the student will be able to describe the common properties of signals, describe basic challenges in processing and analyzing them, explain the principles of filtering and spectral analysis and select suitable methods for applications.

Course Content:

Introduction to linear dynamical systems,. Signal conditioning circuit design and measuring electronics for various sensors, Feedback Controllers (PID) and their applications, Introduction to DSP and digital filters, ADC and DAC circuits

Method of Teaching and Learning:

Lectures, assignments, seminars and student-centered discussions.

Assessment:

End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:

Floyd, T. L. (1992). Digital Fundamentals, 6th Edition, Prentice-Hall International.

* Fraden, J. (2000). Handbook of Modern Sensors (Physics, Design, and Applications), 2nd Edition, Springer-Verlog.

* Millman, J. and Grabel, A. (1987). Microelectronics, 2nd Edition, McGraw-Hill Book Company.

* Horowitz, P. and Hill, W. (1997). The art of electronics, 2nd Edition, Cambridge University Press

* M Gopal, Digital control and State variable methods, ISBN: 9780070668805 , 2008.

* A V Oppenheim, R W Schafer & J R Buck, Discrete time signal processing (2nd edition) , PRENTICE HALL. INC, ISBN 0-13-754920-2. 1999.

* Rulph Chassaing, DSP applications using C and TMS320C6X DSK, John Wiley & Sons, ISBN 0-471-20754-3, 2002.

* J G Porakis, D G Manolakis, Digital signal processing, principles, applications and algorithms (3rd edition), Prentice Hall International, ISBN 0-13- 394336-9.

Course Code:

ELEC 22541

Title:

Signal Processing and Data Acquisition Laboratory

Pre-Requisites:

Co-Requisites:

ELEC 22534

Learning Outcomes:

At the end of the course, the student will be able to demonstrate skills on handling of basic signal processing and data acquisition equipment and their applications.

Course Content:

Practical based on comparators, sensors, ADCs, DACs, Amplifiers, pulse shapers, encoders, decoders, filters, etc.

Method of Teaching and Learning:

Three hours of laboratory classes per week.

Assessment:

Continuous assessments, the practical examination at the end-of-course and the presentation.

Recommended Reading:

* Floyd, T. L. (1992). Digital Fundamentals, 6th Edition, Prentice-Hall International.

* Millman, J. and Grabel, A. (1987). Microelectronics, 2nd Edition, McGraw-Hill Book Company.

* Crecraft, D. J. and Gorham, D. (2003). Electronics, 2nd Edition, Nelson Thornes Ltd.

Course Code:

ELEC 31513

Title:

Computer Organization and Architecture

Pre-Requisites:

ELEC 22534

ELEC 31521 (No Co-Requisite for students following BSc Honours degree in Physics)

Learning Outcomes: At the end of the course, the student will be able to demonstrate knowledge of Computer Organization and Architecture and ability explain their uses in practical applications.

Course Contents: Introduction (Computer Organization and Architecture, Structure and Function); Computer Evolution and Performance (A Brief History of Computers, Designing for Performances, The Evolution of the Intel x86 Architecture, Embedded systems and the ARM, Performance assessment); A Top-Level View of Computer Function and Interconnection (Computer components, Computer Function, Interconnection structures, Bus interconnection, PCI 95); Cache Memory (Computer Memory System Overview, Cache Memory Principles, Elements of cache design, Pentium 4 cache organization, ARM cache organization); Input/Output (External devices, I/O modules, Programmed I/O, Interrupt-driven I/O, Direct memory access, I/O channels and processors, The external interface: Fire Wire and InfiniBand); Instruction Sets: Characteristics and Functions (Machine instruction characteristics, Types of operands, Intel x86 and ARM data types, Types of operations, Intel x86 and ARM operation types); Instruction Sets: Addressing Modes and Formats (Addressing, x86 and ARM addressing modes, Instruction formats, X86 and ARM instruction formats, Assembly Language); Processor Structure and Function (Processor organization, Register organization, The Instruction cycle, Instruction pipelining, The x86 processor family, The Arm processor); Reduced Instruction Set Computers (RISC) (Instruction execution characteristics, The use of a large register file, Compiler-based register optimization, Reduced instruction set architecture, RISC pipelining, MIPS R4000, SPARC, RISC versus CISC controversy); Instruction-Level Parallelism and Superscalar Processors (Overview, Design issues, Pentium 4, ARM Cortex-A8)

Method of Teaching and Learning: Lectures, assignments, seminars and student-centered discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:

* Stallings, W. (2016) Computer Organization and Architecture, 10th Edition, Prentice Hall.

* Mano, M. M., Kime, C. R., and Martin T. (2016).Logic & computer design fundamentals 5th Edition, Prentice Hall.

Course Code:

Title:

Special Topics in Electronics

Pre-Requisites:

ELEC 31513

Learning Outcomes: At the end of course, the student will be able to demonstrate knowledge of selected topics in the field of practical electronics.

Course Content: (Two of the following topics will be selected for the course depending on the availability of staff);  Advanced Solid State Devices, Communication Systems, Data Communications and Computer Networks, Growth of Semiconductor Materials and Fabrication of Semiconductor Devices, Optical Communication Devices and Systems, Opto-Electronic Devices, Programmable Logic Devices.

Method of Teaching and Learning: A combination of lectures and tutorial discussions.

Assessment: End of semester written examination.

Recommended Reading:

* Holdsworth, B. and Woods, R. C. (2002). Digital system design, Newnes Publications.

* Streetman, B. G. and Bannerjee, S. (1995). Solid State Electronic Devices, 4th Edition, Prentice Hall.

* Williams, R. (1990). Morden GaAs processing method, Artech House Norwood.

* Sze, S. (1981). Physics of semiconductor devices, Wiley, New York.

* Couch, L. W. (1980). Digital and analogue communications systems, Prentice Hall.

* Forouzan, B. A. (2004). Data Communications and Networking, 3rd Edition, Mc-Graw Hill.

* Tannenbaum, A. (2003). Computer Networks, 4th Edition, Prentice Hall.

* Stallings, W. (2004). Data and Computer Communications, 7th Edition, Prentice Hall.

Course Code:

Title:

Multi-Disciplinary Group Project

Learning Outcomes: At the end of the course unit, the student will be able to, (i) demonstrate knowledge and understanding of a selected area of industrial relevance, and (ii) develop skills needed in working in a multicultural, industrial environment.

Course Content: To be specified by the Department.

Course Code:

Title:

Professional Placement

Learning Outcomes: At the end of the course unit, the student will be able to, (i) demonstrate knowledge and understanding of a selected area of industrial relevance, and (ii) develop skills needed in working in a multicultural, industrial environment.

Course Content: To be specified by the Department.

Method of Teaching and Learning: Training under the supervision and guidance in a relevant industry for six weeks.

Assessment: Evaluation of the progress report submitted by the trainer and the student’s technical report.

Recommended Reading:

* Reading and reference materials recommended/provided by the relevant industry

Course Code:

Title:

Research Project

Pre-Requisites:

All ELEC Compulsory Course Units

Learning Outcomes: At the end of the course, the student will be able to demonstrate acquired knowledge and experience of conducting a research-based study in the field of electronics and be able in presenting a research report.

Method of Teaching and Learning: A project is assigned to student/s under the supervision of senior staff member/s at the beginning of the Third Year.

Assessment: A dissertation should be submitted and the results should be presented at a seminar. The work will be assessed on the dissertation and the seminar.

Recommended Reading:

* Reading material relevant for research topic/s

Course Code:

Title:

Microcontrollers and Embedded Systems

Pre-Requisites:

All previous Compulsory courses

Learning Outcomes:

At the completion of this course students will be able to,

• Explain the basic concepts related to microcontrollers, microprocessors and embedded systems,
• Understand the different types of microcontrollers,
• Design and implement microcontroller-based applications.

Course Content: What is an embedded system?, Microprocessor vs. microcontroller, Micro controller families, PIC microcontrollers, microcontroller architecture overview, Parallel port interface, Power supply, Clock oscillator, Assembly language programming, Parameter passing, Global variable, Local variable, Interrupt handling, Introduction to development environment, Serial port, Universal synchronous /asynchronous receiver/transmitter (USART), Data acquisition and manipulation, System C for microcontroller programming, Queue management, Resource management, Real world application design examples, DC motor control, Automation with microcontrollers, Brief introduction to Arduino & Raspberry pi, PIC vs. Arduino.

Method of Teaching and Learning:

Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:

*Wilmshurst (2007) Designing Embedded Systems with PIC Microcontrollers, Principles and Applications, Elsevier, 1^st Edition Newnes
*W. Valvano (2012) Embedded Microcomputer Systems: Real Time Interfacing, 3^rd Edition, CL Engineering
*A.Mazidi, J. G. Mazidi, R. D. McKinlay (2007) The 8051 Microcontroller and Embedded Systems Using Assembly and C, 2^nd Edition, Pearson
*G. J. Lipovski and J. D. Irwin (2000) Embedded Microcontroller Interfacing for M COMPULSORY Systems, 1^st Edition, Academic Press

Course Code:

ELEC 43042

Title:

Emerging Topics in Electronics

Pre-Requisites:

All the Compulsory course modules in Electronics

Learning Outcomes:

At the completion of this course students will be able to,

• Gain insights in how to do an effective literature survey, how to make and effective, scientific presentation, and how to write a summary paper (review paper, critical analysis, executive summary),
• Improve knowledge in interdisciplinary areas of electronics,
• Acquire insight into some selected and emerging areas of electronics.

Course Content: 2D Electronics, Bio-Medical Electronics, Brain-Inspired Computing, Green Electronics, Humanoid Robotics, Medical Robotics, Memristors, Metamaterials, Molecular Electronics, Neuromorphic Architectures, Optoelectronics, Optical Computing, Organic Electronics, Quantum Electronics, Smart Cities, Self-Driving Cars, Spintronics, Super Capacitor Assisted Technologies, Transportation Electrification, Wearable Technology, Wireless Power Transfer.

Method of Teaching and Learning: This module will run throughout level 3. At the beginning instructions are given for guided reading, effective literature survey, writing summaries, and critical analysis etc. Each student must choose several topics under the supervision of staff member and does a literature survey themself based on recently published research articles. They must present a summary of their study in form of presentation and summary paper. During a semester each student must present two topics.

Assessment: Presentations and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Students must find the references themselves

Course Code:

ELEC 43053

Title:

Advanced Electronics Laboratory I

Pre-Requisites:

Level 1 & 2 Electronics compulsory course modules

Level 3 Electronics course modules

Learning Outcomes:

At the completion of this course students will be able to:

• Demonstrate skills in advanced experimental techniques through laboratory work on areas of Power electronics, Microcontrollers, Embedded systems, Control systems, Communication systems, DSP, Image processing, Semiconductors & Electromagnetism,
• Designing and planning of laboratory experiments their own once the final goal is given,
• Writing comprehensive laboratory reports and presenting results based on the analysis of experimental data.

Course Content: Power electronics, Microcontrollers, Embedded systems, Control systems, Communication systems, DSP & Image processing, Semiconductor materials, Electromagnetism.

Method of Teaching and Learning: 6 hours of laboratory classes per week and independent learning, PODBL (Project Oriented Design Based Learning).

Assessment: Continuous assessments, attendance and the practical examination at the end-of-course.

Recommended Reading:
*Students must do literature survey of their own and find suitable references once the goal of experiment is given to them.

Course Code:

ELEC 44064

Title:

Power Electronics

Pre-Requisites:

Level 1 & 2 all Electronics course modules

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Describe the operations of power semiconductor devices such as Diodes, BJTs, IGBTs, MOSFETS, Thyristors, SCS, SCR etc,
• Analyse and design AC/DC Rectifiers,
• Describe the operation and design switch mode DC-DC convertors.

Course Content: Introduction to Power Electronics, Scope and Applications, Power processors and convertors, Power semiconductor devices, Diodes, Thyristors, Power Transistors, Insulated-Gate Bipolar Transistor (IGBT), MOSFETS, MOS Controlled Thyristors, Silicon controlled switch (SCS), Silicon controlled rectifiers (SCR), Switching characteristics, Uncontrolled and controlled rectifiers, SCR power control, dc-dc switch mode converters; Buck converter, Boost converter, Buck-boost converter, Cuk dc-dc Convertor, Full bridge converter, DC/AC inverters, Voltage source inverters, Current source inverters, PWM methods, SMPS.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Mohan, Power Electronics, A first course, 1^st Edition, John Wiley & Sons, 2012
*W. Hart, Power Electronics, 1^st Edition, McGraw‐Hill, 2011
*Mohan, T. M. Undeland, W. P. Robbins, Power Electronics: Converters, Applications, and Design,John Wiley, 3^rd Edition, 2003
*M. H. Rashid, Power Electronics: Circuits, Devices & Applications, 4^th Edition, 2013

Course Code:

ELEC 44074

Title:

Advanced Analogue Electronics

Pre-Requisites:

Level 1 & 2 Electronics compulsory course modules

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Understand the basic MOS device physics in depth,
• Understand the operation of Single stage amplifier, Differential amplifier, LNA, PA, Current mirrors, VCO & PLL in detail,
• Analyse biasing, frequency response, stability, and noise performance of a given analogue integrated electronic circuits,
• Understand analogue Filter synthesis process,
• Design and analyse complex analogue electronics circuits.

Course Content: Scope and Applications of Analogue Electronics; MOS device physics:  MOSFET Basics and IV Characteristics, Second order effects, Body effect, Channel length modulation, Subthreshold conduction, MOS device Models; Single stage amplifiers: Common-source (CS) stage, CS with resistive load, Diode connected load, current source load, triode load, source degeneration, Source follower, Common-gate stage, Cascode stage, Folded cascade; Differential amplifiers:  Single ended and differential operation, common mode operation, Differential Pair with MOS Loads, Gilbert cell; Passive and active current mirrors: Basic current mirrors, Cascode current mirrors, Active current mirrors; Frequency response of amplifiers: Miller effect, Association of poles and nodes; Feedback: Noise: types of noise in analogue circuits, Voltage-Voltage feedback, Current-voltage feedback, Voltage-current feedback, Current-current feedback, Effects of Loading, OP amps:  One-stage OP-AMP, Two-stage OP-AMP, Gain boosting, Common-mode feedback, Noise in OP-AMPs: Stability and Frequency Compensation, multi-pole systems, Phase margin, Frequency Compensation; Bandgap References: Supply independent biasing, Temperature-independent references, Negative TC Voltage, Positive TC Voltage; Bandgap reference, PTAT Current generation; Switched capacitor circuits: Sampling switches, Switched Capacitor Amplifiers, Switched Capacitor Integrator, Switched Capacitor Common mode feedback; Oscillators: Ring oscillators, LC Oscillators, Voltage controlled oscillators (VCO); Phased looked loop (PLL): Simple PLL, Charge pump PLL, Non-ideal effects in PLL, Delay locked loops, PLL Applications; Wide‐bandwidth amplifiers. Low noise circuits, Low noise amplifiers (LNA). Power amplifiers (PA).  Active filters, Analogue Filter Synthesis.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Behzad Razavi, Design of Analogue CMOS Integrated Circuit, 1^st Edition, McGraw-Hill, 2001
*Franco Sergio, Design with Operational Amplifiers and Analogue Integrated Circuits, 4^th Edition, McGraw‐Hill, 2015
*Gray Paul R, Analysis and Design of Analogue Integrated Circuits, 5^th Edition, John Wiley, 2010
*Tony Chan Carusone, Analogue Integrated Circuits Design, 2^nd Edition, John Wiley, 2011

Course Code:

ELEC 44084

Title:

Applied Electromagnetics

Pre-Requisites:

Electric Circuit Fundamentals, Electromagnetic Theory

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Demonstrate knowledge of electromagnetic theory,
• Formulate and solve problems in electromagnetism using appropriate mathematical technique.

Course Content: Review of vector analysis, Static electric and magnetic fields, Boundary-value problems in electrostatics, Electrostatic energy, Magnetostatics, Magnetic energy, Time-varying fields, Maxwell equations, Conservation laws, Wave equation and uniform plane waves, Wave propagation, Electromagnetic energy transfer, Reflection of electromagnetic waves, Wave guides and resonant cavities.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Hayt, W. H., and Buck, J. A. (2012). Engineering Electromagnetics, 8^th Edition, McGraw‐Hill
*Ulaby, F. T. (2005), Electromagnetics for Engineers, 1^stEdition, Pearson Prentice‐Hall.
*Griffiths, D. J. (1999). Introduction to Electrodynamics, 3^rd Prentice-Hall
*Jackson, J. D. (1975). Classical Electrodynamics, John Wiley
*Lorrain, P., and Corson, D. (1970). Electromagnetic Fields and Waves, W. H. Freeman & Co
*Reitz, R. and Milford, F. J. (1967). Foundations of Electromagnetic Theory, 2^nd Edition, Addison Wesley

Course Code:

ELEC 44094

Title:

CMOS VLSI Systems Design

Pre-Requisites:

Level 1 & 2 Electronics Compulsory course modules

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Understand basics of CMOS VLSI design process,
• Gain clear understanding on VLSI Design rules,
• Design and layout basic CMOS integrated circuits by applying the common design techniques for optimization (Sketch digital circuits in transistor level),
• Sketch the layout of simple circuit according to the layout design rules,
• Do the timing analysis (Estimate the delay of logic gates),
• Performance estimation of VLSI circuits,
• Understand the trade-offs and issues in modern VLSI design,
• Design and optimize complex functional blocks,
• Use commercial CAD tools for design and optimization.

Course Content: IC design history, Overview of CMOS design; CMOS Transistor basics, CMOS Logic, Compound gates, Pass transistors, Transmission gates, Tristate Gates, Multiplexers, Latches and Flip-Flops, CMOS processing technology; Vapour formation, Photolithography, Layout design rules, CMOS process Enhancement, Technology related issues, MOS Transistor theory; Operation, Ideal IV characteristics, CV characteristics, Simplified MOS capacitor model, Diffusion capacitance, Non-Ideal effects; Velocity saturation, Mobility degradation, Channel length modulation, Body effect, Sub threshold conduction, Junction leakage, Tunnelling, Temperature dependence, Geometry dependence, Circuit characterization and performance estimation, Delay estimation; RC Delay models ,Elmore delay model, Linear delay model, Logical effort, Electrical effort, Transistor sizing, Branching effort, Stage effort, Choosing the best no of stages for given design, Asymmetric gates, Skewed Gates, Pseudo-nMOS Logic, Dynamic Logic, Monotonicity, Pass transistor logic, Domino gates, Sequential circuits, Floor planning, Sequencing, Sequencing Element design, Max and min-Delay, Clock skew, Time borrowing, Two-Phase clocking, Interconnect, Wire engineering & reliability, Packaging, Design methodology and tools, VLSI Design automation using CAD tools.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*H. E. Weste and D. M. Harris, CMOS VLSI design, A circuit and system perspective, 4^th edition, Pearson, 2005
*H. E. Weste and D. M. Harris, Integrated Circuit Design, 4^th Edition, Pearson, 2011
*Wolf, Modern VLSI Design: System-on-Chip Design, 3^rd Edition, Prentice Hall, 2002
*S. M. Kang and Y. Leblebici, CMOS Digital Integrated Circuits, 3^rd Edition, McGraw-Hill, 2003

Course Code:

ELEC 43133

Title:

Advanced Electronics Laboratory II

Pre-Requisites:

Level 1, 2 & 3 Electronics compulsory course modules

All level 4 Electronics course modules

Learning Outcomes:

At the completion of this course students will be able to,

• Demonstrate skills in advanced experimental techniques through laboratory work on power electronics, Microcontrollers, Embedded systems, Control systems, Communication systems, DSP & Image Processing, Advanced Electromagnetism, RF & Microwave Circuits Design, Optoelectronics, Industrial Automation, and FPGAs,
• Designing and planning of laboratory experiments their own,
• Writing comprehensive laboratory reports and presenting results based on the analysis of experimental data.

Course Content: Power electronics, Microcontrollers, Embedded systems, Control systems, Communication systems, DSP & Image Processing, Advanced Electromagnetism, RF & Microwave Circuits Design, Optoelectronics, Industrial Automation, and FPGAs.

Method of Teaching and Learning: 6 hours of laboratory classes per week and independent learning, PODBL (Project Oriented Design Based Learning).

Assessment: Continuous assessments, attendance and the practical examination at the end-of-course.

Recommended Reading:
*Students must do literature survey of their own and find suitable references once the goal of experiment is given to them.

Course Code:

ELEC 44103

Title:

Digital Signal Processing (DSP)

Pre-Requisites:

Level 1 & 2 Electronics course modules

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Understand basic concepts related to Digital Signal Processing,
• Analysis and design of discrete-time linear-time invariant systems for processing discrete-time signals,
• Analyse and design digital filters; FIR and IIR filters.

Course Content: Signal sampling and quantization, Review of discrete-time (DT) signals: linearity, Time-invariance, Causality, Stability, and Convolution; Discrete-time Fourier transform and difference equations, Fast Fourier transform (FFT), Sampling theorem; Reconstruction of continuous-time signals from discrete-time signals; Interpolation and decimation, The z-transform, Basic filtering types, and Digital filter realization; Finite impulse response (FIR) and infinite impulse response (IIR), FIR filter design techniques: Frequency sampling and windowing method, IIR filter design using analogue prototypes, and Transforms from continuous-time to discrete time.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Tan, J. Jiang, Digital Signal Processing: Fundamentals and Applications, 2^nd Edition, Academic Press, 2013
*Ifeachor, B. Jervis, Digital Signal Processing, A Practical Approach, 2^nd Edition, Prentice Hall, 2001
*V. Oppenheim, R. W. Schafer, Discrete-Time Signal Processing, 3^rd Edition, Pearson, 2010
*K. S. Mitra, Digital Signal Processing: A Computer based Approach, 2^nd Edition, McGraw-Hill, 1998

Course Code:

ELEC 44112

Title:

Digital Systems Design with PLD

Pre-Requisites:

Digital Electronics

Learning Outcomes:

At the completion of this course students will be able to,

• Understand ROM structure and use it for digital circuit design,
• Understand the architecture of SPLDs and implement simple logic functions with them,
• Understand razing hazards and hazel free design techniques,
• Design with CPLD,
• Design digital circuits with FPGAs,
• Demonstrate PLD programming with HDLs (VHDL or Verilog),
• Design FSM and implement them with HDLs.

Course Content: ROM internal architecture, ROM as PLD, Simple programmable logic devices (SPLDs), SPLD internal architectures, Logic implementation using PGA, PLA, PLA, PLS & GAL, Controlled inverters, Output logic macrocells (OLMCs), Racing hazards in PLDs, Hazel free design techniques, Programmable logic sequencers (PLS), Complex PLD (CPLDs), CPLD macrocells, Shared expanding, Parallel expanding, FPGA, FPGA architecture, Look up table (LUTs), Logic modules, Slices, Platform FPGAs, Hard-Compulsory logic, IP Compulsory logic, Xilinx & Altera FPGAs, Generating SOP cascading chains using Vertex, ASMBL FPGAs, Programming technologies; Fusible links, Anti-fuses, EPROM, E²PROM, SRAM, Hardware description languages (HDLs), VHDL, Verilog, VHDL examples for combinational & sequential logic design, VHDL syntax, Dataflow description, Behavioural description, State machine (Melay & Moore machine using HDLs), Sequence recognizer example, Logic compilers, JDEC file, JTAG boundary scanning, design entry, Logic synthesis & optimization, Functional simulation, Timing simulation, Waveform editors, In-system programming (ISP), Xilinx ISE sample demonstrations.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions and Laboratory classes.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Holdsworth and R. C. Woods, Digital system design, 4^th Edition, Newnes, 2002
*Floyd, T. L. (2014). Digital Fundamentals, 11^th Edition, Pearson
*C. Chang, Digital Systems Design with VHDL and Synthesis: An integrated approach, 1^st Edition, Wiley-IEEE Computer Society, 1999
*Morris Mano Charles Kime, Logic and Computer Design Fundamentals, 4^th Edition, Pearson, 2014
*Xilinx ISE 9. 1 Quick Start Tutorial, Xilinx Cooperation

Course Code:

ELEC 44123

Title:

RF & Microwave Circuits Design

Pre-Requisites:

Level 1 & 2 Electronics compulsory course modules

ELEC 43133 Advanced Electronics Laboratory II

Learning Outcomes:

At the completion of this course students will be able to,

• Understand the basics of RF circuit design,
• Understand the signal flow graphs and their applications,
• Analyse microwave circuits using Z, Y, ABCD, and S-parameters,
• Design and analyse planar transmission lines,
• Design and analyse micro strip circuits,
• Analyse microwave circuits using lumped circuit simulation and EM Simulation.

Course Content: Radio‐frequency circuits design, Impedance matching, Smith chart & operations. Small‐signal RF amplifiers, Mixers, RF power amplifiers, Oscillators, Phase‐locked loop (PLL) circuits, signal flow graphs and their applications in microwave circuit analysis and design, Z, Y, ABCD and S‐parameters, Two port parameters, Scattering matrix parameters, Planar transmission lines, Microstrip line design, Lumped/distributed circuit elements, Impedance matching circuits, resonators, dividers, couplers, filters and duplexers.

Method of Teaching and Learning: Combination of Lectures, Tutorial discussions, Student-centred discussions, Demonstration type laboratory class.

Assessment: End-of-course written examination and other assessments announced at the beginning of the course unit.

Recommended Reading:
*M. Pozar, Microwave Engineering, 4^th Edition, John Wiley, 2012
*Hong Jia‐Sheng and Lancaster M J, Microstrip Filters for RF/Microwave Applications, 2^nd Edition, John Wiley, 2011
*Ludwig Reinhold and Bretchko Pavel, RF Circuit Design: Theory and Applications, 2^nd Edition, Prentice‐Hall, 2008
*White Joseph F, High Frequency Techniques: An Introduction to RF and Microwave Engineering, IEEE Press, 2004
*R. E. Collin, Foundations of Microwave Engineering, 2^nd Edition, McGraw-Hill 1992

Course Code:

ELEC 44143

Title:

Research and Development Internship in Electronics

Pre-Requisites:

All Compulsory courses of Level 1, 2 & 3

Learning Outcomes:

At the completion of this course students will be able to,

• Apply theoretical knowledge in an industrial & professional setting for R & D works,
• Develop professional competencies and relationships,
• Develop exposure to a professional field and an understanding of professional etiquette,
• Evaluate the professional organizational culture,
• Evaluate critically the internship experience as an exemplar for the field,
• Prepare a professional report on the internship.

Course Content: Apply theoretical knowledge in an industrial & professional setting for research and development works, Development of professional competencies and interpersonal relationships, Develop exposure to a professional field and an understanding of professional etiquette. The student should learn from observing the professional behaviour of the supervisor and other employees at the site, as well as through interaction with customers or clients. The student also practices proper business etiquette while fulfilling his or her training responsibilities and evaluates the professional organizational culture. The student should be able to understand the dynamics of an organization’s culture through observing and reflecting on how decisions are made, how work is structured, how power is shared, how colleagues interact, how an organization’s mission/vision are implemented, find to what degree accountability and feedback are present in the organization, evaluate critically the internship experience as an exemplar for the field, compose a professional report on the training, and learn the basic structure and ingredients of a technical report on an industrial experience.

Method of Teaching and Learning: Supervisor of the industrial organization will assign a project to be completed at the end of the training period.

Assessment: Oral presentation based on technical report and other assessments announced at the beginning of the course unit.

Recommended Reading:
*Students must find relevant material under guidance of field supervisor if they need any

Course Code:

ELEC 44158

Title:

Research Project

Pre-Requisites:

All compulsory course modules in Electronics

Learning Outcomes:

At the completion of this course students will be able to demonstrate competence in,

• Planning and carrying out a research project in Electronics,
• Identify, define and investigate a research problem in electronics to provide a solution,
• Write a research project plan, document the progress in detail, and conduct progress reviews,
• Use suitable electronics principles to reach and solve a research/design problem,
• Writing a dissertation on the research findings and presentation of the results to convince via effective communication in both writing and orally,
• Ethical research practices, and improves technical abilities.

Course Content: A student will be assigned a research project in Electronics. Initially students have to submit a project proposal and select suitable project supervisor(s). The students’ progress will be evaluated regularly by the supervisor and the examination panel. A project report in the form of a dissertation will be submitted at the end of the project.

Method of Teaching and Learning: PODBL (Project Oriented Design Based Learning) method will be utilized.

Assessment: Research proposal, Research progress presentations, Project Demonstration, Final oral presentation, Dissertation, Presentation at symposium.

Recommended Reading:
*Student must find related references themselves