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Please note - Swinburne University of Technology

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~~563 Advanced Computer Techniques<br />

No. <strong>of</strong> hours per week: three hours<br />

Prerequisites: EE467 Computer Communications<br />

Instruction: lectures/laboratory<br />

Assessment: assignment/computer laboratory<br />

Subject aims<br />

To introduce advanced computer engineering concepts and<br />

techniques in the areas <strong>of</strong> computer s<strong>of</strong>tware, hardware and<br />

computer applications.<br />

Subject description<br />

Material presented in this subject reflects the current research<br />

interests <strong>of</strong> computer systems engineering lecturers. Students<br />

choose three units, examples <strong>of</strong> which include:<br />

parallel computer systems<br />

database systems<br />

hardware description languages<br />

comparative languages<br />

image processing<br />

compilation techniques<br />

digital signal processing architectures<br />

Each unit is allocated one hour per week. Availability <strong>of</strong> units<br />

will depend on student demand and staff.<br />

TextslReferences<br />

IEEE and ACM transactions and magazines<br />

Other references as advised by unit lecturers<br />

~~576 Electronics<br />

No. <strong>of</strong> hours per week: three hours<br />

Prerequisites: EE476 Electronics<br />

Instruction: lectures/tutorials/laboratory<br />

Assessment: examination/assignment<br />

Subject aims<br />

To extend the principles learned in earlier years <strong>of</strong><br />

microcontroller power electronics and opto-electronics, with<br />

applications in the power areas.<br />

Subject description<br />

Part A - Microcontrollers<br />

The application <strong>of</strong> single chip microcontrollers to electrical<br />

engineering. ND and DIA conversion. Data communications<br />

and interfacing.<br />

Part B - Power electronics<br />

Protection <strong>of</strong> semiconductor devices. Current protection over<br />

voltage protection high speed fuses. Series and parallel<br />

operation. Design <strong>of</strong> base and gate driver circuits with<br />

isolation.<br />

TextsIReferences<br />

Intel Embedded Controller Handbook. Santa Clara, Calif., Intel<br />

Corporations, 1987<br />

Krutz, R.L. Interfacing Techniques in Digital Design with Emphasis on<br />

Microprocessors. New York, Wiley, 1988<br />

Peatman, J.B. Design with Microcontrollen. New York, McGraw-Hill,<br />

1988<br />

Williams, B.W. Power Electronics. 2nd edn, Basingstoke, Macmillan,<br />

1992<br />

Halsall, F. Data Communications, Computer Networks and Open<br />

Systems. 3rd edn, Wokingham, Addison-Wesley, 1992<br />

~~597 Electrical Power Systems<br />

No. <strong>of</strong> hours per week: five hours<br />

Prerequisites: EE475 Electrical Power and<br />

Machines<br />

Instruction: lectures/tutorials/laboratory<br />

Assessment: examinationfassignment<br />

Subject aims<br />

To introduce the principles <strong>of</strong> the major areas <strong>of</strong> modern<br />

electrical power systems engineering, covering stability,<br />

protection, circuit interruption and high voltage engineering.<br />

Subject description<br />

Power system stability and control: dynamic and transient<br />

stability. Simplified models for the synchronous machine.<br />

Cylindrical and salient rotors. Direct and quadrature axes<br />

components. Transient stability. Rotor dynamics - the swing<br />

equation. Pre-fault and post-fault network configurations.<br />

Equal area criterion for stability. Dynamic stability. Linearisation<br />

<strong>of</strong> system equations. State space representation.<br />

Eigenanalysis. Automatic voltage regulator and governor<br />

functions. Digital computer techniques.<br />

Protection systems: definitions. Current transformers. Voltage<br />

transformers. Overcurrent protection. Instantaneous and<br />

inverse time. Distance protection. Directional features.<br />

Transformer orotection. Windina and oil temoerature.<br />

Dissolved ga; analysis. Motor<br />

ene era tor<br />

protection.<br />

Circuit interruption and circuit breakers: arc characteristics.<br />

Vacuum arcs. principles <strong>of</strong> circuit interruption. Effects <strong>of</strong><br />

power factor. Inductive circuit interruption. Single and<br />

double frequency transients. Short line faults. Capacitive<br />

circuit interruption. Circuit breaker types. Standard<br />

specifications. Circuit breaker testing.<br />

Power systems analysis<br />

Node elimination using matrix partitioning. Load flows: load<br />

characteristics, uses <strong>of</strong> load flow studies. Gauss-Siedel and<br />

Newton Raphson methods. Economic operation <strong>of</strong> a system.<br />

Unsymmetrical faults: symmetrical components, and sequence<br />

networks. High voltage insulation systems, principles <strong>of</strong><br />

insulation coordination.<br />

References<br />

Electricity Council. Power System Protection. 2nd edn, Stevenage,<br />

U.K., Peregrinus, 1981<br />

Flurscheim, C.H. Power Circuit Breaker Theory and Design. Stevenage,<br />

Herts Peregrinus for the Institution <strong>of</strong> Electrical Engineers, 1975<br />

Greenwood, A. Electrical Transients in Power Systems. New York,<br />

Wiley-Interscience, 1971<br />

Stevenson, W.D. Elements <strong>of</strong> Power System Analysis. 4th edn, New<br />

York, McGraw-Hill, 1982

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