1997 Swinburne Higher Education Handbook
1997 Swinburne Higher Education Handbook
1997 Swinburne Higher Education Handbook
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Conctpts and Implementation. Englewood Cliffs, N.J., Prentice<br />
Hall, 1990<br />
Samson, D. (ed.) Managementfir Engineers. Melbourne, Longman<br />
Cheshire, 1989<br />
Samuelson, M. Supervision and Management. Brisbane, Wiley,<br />
1990<br />
Additional references will be provided by the lecturers for their<br />
topics<br />
EE530<br />
Analogue Electronic Instrumentation<br />
and Techniques<br />
12.5 credit points 4 hours per week Hawthorn<br />
Prerequisites: Assessment: practical work, assignments and<br />
examination<br />
A subject in the Masters of Engineering by Course<br />
Work(Computer Systems Engineering) and (Biomedical<br />
Engineering)<br />
Objectives<br />
The student should be familiar with the basic digital<br />
building blocks (such as gates, flip/flops, counters etc.)<br />
Be capable of analysing and synthesising digital circuits<br />
of moderate complexity.<br />
develop an understanding of the basic analog building<br />
blocks (such as amplifiers, filters, non-linear circuits,<br />
etc.)<br />
to analyse and synthesise analog circuits using<br />
operational amplifiers.<br />
and have a basic understanding of discrete electronic<br />
components (such as diodes and transistors).<br />
Content<br />
Digital Electronics: Combinational logic: Review of Boolean<br />
algebra analysis and synthesis, Kmaps; SSI and MSI Building<br />
Blocks: Adders, Subtractors, ALU s, Multiplexers,<br />
Demultiplexers, Encoders, Decoders; Sequential Logic;<br />
Latches and Flip-flops; MSI building blocks (counters,<br />
registers, shift registers); State Machines; Logic Devices and<br />
Family Characteristics: Fan out, loading, propagation delays,<br />
power dissipation; Logic levels and compatibility; Threestate<br />
and open collector outputs; Programmable Devices:<br />
ROMs, PLAs, PALS.<br />
Analog Electronics: Amplifiers: Input and output<br />
Impedance, Loading Effects, Voltage Gain, Current Gain,<br />
Power Gain, Frequency Response Classifications, Bode<br />
Diagrams; Ideal Operational Amplifiers: Ideal Model, Unity<br />
Gain Buffer, Inverting, Non-Inverting configurations,<br />
8 Summing and Differential Amplifiers, Integrators and<br />
0<br />
3<br />
Differentiators; Filters: Second Order Active Filters, LP,<br />
P. - HP, BP Filter examples; Non Ideal OP-Amps: Effect of<br />
finite OP-amp gain, Bandwidth, Input Offset Voltage, Input<br />
Bias Current, Bias Current; CMRR; Instrumentation<br />
Amplifiers; Introduction to Discrete Devices: Diode: VI<br />
Characteristics, Lumped Linear Models; Transistors: Large<br />
and Small Signal Models<br />
Non Linear Op-Amp Applications: Clipping and Clamping<br />
Circuits, Precision Diode, Peak Detector; Comparators.<br />
Recommended Reading<br />
Maddock R.J. Calcutt D.M. Electronics for Engineers, Scientific<br />
and Technical, 2nd Edn., 1994.<br />
Mano M.M. Digital Design, Prentic.Hal1, 2nd Edition 1991.<br />
Millman J. and Grabel A.,Microelectronics, McGraw Hill, Ed. 2nd<br />
1987<br />
Sedra A.S. and Smith K.C., Microelectronic Circuits, Holt,<br />
Rinehdrt and Winston, 3rd Edn., 1992.<br />
EE544 Electronic Communication Systems<br />
7 credit points 3 hours per week Hawthorn<br />
Prerequisites: EE388, EE482 Assessment: laboratory,<br />
examination, assignment<br />
A final year subject in the communications and electronics<br />
stream of the degree of Bachelor of Engineering (Electrical)<br />
0 biectives<br />
Understand and use common mobile communications<br />
terminology.<br />
Explain the behaviour of mobile communications<br />
systems and techniques.<br />
Analyse and critically evaluate performance of systems.<br />
Design systems to specified parameters, using analytical<br />
and empirical rules.<br />
Content<br />
Mobile and Personal Communications Systems:<br />
Introduction to mobile radio communications; Cellular<br />
concepts, system operation, handover for analogue cellular<br />
(AMPS); Mobile radio signal propagation; Small scale fading<br />
and multipath; Modulation; Cellular systems standards:<br />
AMPS, USDC, GSM and CDMA, and capacity<br />
comparisons; Wireless networking and PCS.<br />
Recommended Reading<br />
Duff W.G., A handbook on mobile communications, Germantown,<br />
Md, Don White consultants, 1976.<br />
IEEE Personal Communications, IEEE, N.Y.<br />
IEEE Transactions on Vehicular Technology, IEEE, N.Y.<br />
Jakes, MobileRadio Communications, N.Y. Wiley, 1974.<br />
Jakoda A. and De-Villepen M., Mobile Communications, Palaiseau,<br />
France, M Mouly and M.B. Pautet, 1992.<br />
Lee W.C.Y, Mobile Communications Engineering, McGraw Hill,<br />
1992.<br />
Mouly M. and Pautet M.B., lhe GSM system for Mobile<br />
Communications, Palaiseau, France, M. Mouly and M.B. Pautet.<br />
1992.<br />
Parsons, J.D. and J.D. Gardiner, Mobile Communications Systems,<br />
Glasgow, Blackie, 1989.<br />
Steele, R. Mobile Radio Communications, London, Pentech, 1992.<br />
EE545 Electronics<br />
9 credit points 4 hours per week Hawthorn<br />
Prerequisites: EE483 Assessment: examination, assignment<br />
A final year subject in the communications and electronics<br />
stream of the degree of Bachelor of Engineering (Electrical)<br />
0 bjectives<br />
To introduce students to algorithmic state machine, the<br />
design and synthesis of modern integrated digital systems<br />
including VLSI design rules and performance estimation.<br />
Content<br />
VHDL and High Level Synthesis: High level systhesis,<br />
functional models, HDL, VHDL, design entity declarations,<br />
architectural body, behavioural modelling, transport and<br />
inertial delays, signal assignments, drivers, data structures,