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1997 Swinburne Higher Education Handbook

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Waves and Sound;<br />

Optics;<br />

Thermal Physics;<br />

Nuclear Physics.<br />

Recommended Reading<br />

Physicsfor Scientists and Engineers with Modern Physics, 4th<br />

Edition, Serway (Saunders)<br />

Study Guide with Computer Exercises to accompany Physics for<br />

Scientists and Engineers with Modern Physics, 4th Edition, Gordon<br />

and Serway (Saunders)<br />

SE2 10/SE2 10C/SE2 1 OM<br />

SE2 10T Electronics<br />

10 credit points 4.5 hours per week Prerequisites: EE182/<br />

SElZOT, SM112/SE120M/SE120C/SEllOT Assessment:<br />

practical work, assignments CML tests and examination.<br />

A second year subject in the degree of Bachelor of<br />

Engineering (Electrical)/Bachelor of Applied Science<br />

(Computing and Instrumentation) and (Medical Biophysics<br />

and Instrumentation) and (Multimedia Technology).<br />

Objectives<br />

To be familiar with the basic digital building blocks<br />

(such as gates, flip/flops, counters etc.);<br />

To be able to analyse and synthesise digital circuits of<br />

moderate complexity;<br />

To be familiar with the basic analog building blocks<br />

(such as amplifiers, filters, non-linear circuits, etc).<br />

To be able to analyse and synthesise analog circuits<br />

using operational amplifiers.<br />

To develop a basic understanding of discrete electronic<br />

components (such as diodes and transistors).<br />

Content<br />

Digital Electronics; Combinational logic: Review of<br />

Boolean algebra analysis and synthesis, Kmaps; SSI & MSI<br />

Building 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 />

Summing and Differential Amplifiers, Integrators and<br />

Differentiators; Filters: Second Order Active Filters, LP,<br />

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, Longman<br />

Scientific and Technical 2nd Edn, 1994<br />

Mano M.M. Digital Design, Prentice-Hall, 2nd Edition, 1991<br />

Millman J. & Grabel A,. Microelectronics McGraw Hdl, Ed 2 1987<br />

Sedra A.S. & Smith K.C. Microelectronic Circuits, Holt, Rinehart<br />

and Winston, 3rd Edn. 1992<br />

SE2 12<br />

Circuits<br />

10 credit points 4.5 hours per week Hawthorn<br />

Prerequisites: SM111, SM112, EE182 Corequisites: SM233<br />

Assessment pracs, assignments, tests & examination<br />

A second year subject in the degree of Bachelor of<br />

Engineering (Electrical)<br />

0 b jedives<br />

To develop a wide range of skills to be used in the analysis<br />

of circuits and to identify the most appropriate analysis<br />

technique for a particular problem. The subject will<br />

embrace the steady state analysis of circuits stimulated with<br />

a sinusoidal or dc input.<br />

Content<br />

Review of DC Circuit analysis techniques<br />

Review of complex impedance and phasor diagrams<br />

Network theorems<br />

Maximum power transfer in fixed frequency circuits, and its<br />

significance<br />

Resonance in variable frequency circuits, and its<br />

significance.<br />

Three ~hase circuits and measurements.<br />

Two port network analysis.<br />

Dependent sources<br />

Non-linear elements<br />

Transformers and mutual inductance<br />

Transient response of first-order circuits<br />

~ecornrnended reading<br />

Benson F.A., Electric Circuit %wry, 3rd Edition, London:<br />

Edward Arnold.<br />

Nilsson J.W. Electric Circuits, 3rd Ed., Reading, Mass. Addison<br />

Wesley, 1990.<br />

SE214 Engineering Physics<br />

10 credit points 4 hours per week Hawthorn<br />

Prerequisites: SP124,SP125 Assessment: test and<br />

examination<br />

A second year subject in the degree of Bachelor of<br />

Engineering (Electrical)<br />

Ob jedives<br />

To develop in students a familiarity with selected areas of<br />

classical and modern physics, particularly those areas<br />

relevant to modern electrical and electronic engineering.<br />

Content<br />

Quantum Mechanics and Solid State Physics:<br />

Quantum Mechanics; Quantum ~henomena, probability<br />

and wave functions. Time independent and time<br />

<strong>Swinburne</strong> University of Technology <strong>1997</strong> <strong>Handbook</strong> 497

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