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Please note - Swinburne University of Technology

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conditions, electromagnetic waves in conducting and nonconducting<br />

media, reflection and transmission, cavities and<br />

waveguides, sources <strong>of</strong> radiation.<br />

Optics: wave theory <strong>of</strong> light, scalar wave approximation,<br />

Kirch<strong>of</strong>f diffraction integral. Fresnel and Fraunh<strong>of</strong>fer<br />

diffraction patterns. Absorption, scattering and dispersion <strong>of</strong><br />

light. Electromagnetic waws. Selected topics from modern<br />

optics.<br />

Solid state physics: Sommerfield theory <strong>of</strong> electronic<br />

behaviour in crystals. Kronig-Rnny model, band theory, PN<br />

junctions.<br />

SP3410 Analogue and Optical Techniques<br />

6.0 credit points per semester<br />

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

semesters<br />

Prerequisite: SP1210<br />

Assessment: examination, laboratory tests and<br />

laboratory reports<br />

A second-year subject for students majoring in<br />

instrumentation.<br />

Subject description<br />

An introduction to the bipolar junction transistor, the<br />

common emitter and differential amplifiers. Transistors as<br />

switches. Regulators. Non-linear feedback elements.<br />

An introduction to the field effect transistor. Common<br />

source and drain amplifiers. Other semi-conductor devices.<br />

Power supplies.<br />

The operational amplifier and circuits based on it.<br />

Properties and applications <strong>of</strong> lasers: sources and detection<br />

<strong>of</strong> optical radiation; electro, magneto and acoustic optical<br />

effects and their applications; fibre optic sensors, types and<br />

properties <strong>of</strong> optical fibres, intensity, phase and frequency<br />

modulation in optical fibre sensors.<br />

5~3430 Interfacing and Nuclear Techniques<br />

6.0 credit points per semester<br />

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

semesters<br />

Prerequisite: SP1210<br />

Assessment: examinations, laboratory reports and<br />

laboratory tests<br />

A second-year subject for students majoring in scientific<br />

instrumentation.<br />

Subject description<br />

An introduction to the hardware elements used in a typical<br />

microprocessor system, including registers, adders,<br />

multipliers, multiplexes, decoders, memory, inputloutput and<br />

peripheral devices.<br />

An introduction to the use <strong>of</strong> a computer language for<br />

interfacing program design, timing, interrupts.<br />

Analogue to digital and digital to analogue conversion.<br />

Sample and hold. Serial communications, Interrupts. Direct<br />

memory access.<br />

Nuclear transducers: radiation safety, radiation detectors,<br />

pulse height analysis, spectrometry.<br />

SP4190 Occupational Hygiene and Safety<br />

9.0 credit points<br />

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

Assessment: examination and assignments<br />

A final-year subject <strong>of</strong> the degree course in environmental<br />

health.<br />

Subject description<br />

Environmental hazards: accident prevention. Work-related<br />

injuries including tenosynwitis, back and muscle injuries,<br />

Relationship <strong>of</strong> physical defects to employee safety. Stress in<br />

the workplace, measurement and alleviation. Passive<br />

smoking.<br />

Noise and vibration. Biophysics <strong>of</strong> sound. Measurement and<br />

bio-effects. Hazard recognition, evaluation and control,<br />

audiometry.<br />

Heat and ventilation. Measurement <strong>of</strong> dusts and fumes, bioeffects<br />

<strong>of</strong> indoor air pollution. Body temperature regulation,<br />

effects <strong>of</strong> heat and cold.<br />

Radiation: ionising and non-ionising (including ultra-violet,<br />

visible light, infra-red, radio frequency and lasers).<br />

Identification and bio-effects. Hazard assessment and control.<br />

Health issues associated with transmission and distribution <strong>of</strong><br />

electrical power and electrical appliances.<br />

Toxicology<br />

Toxic substances: mechanisms <strong>of</strong> action and pathogenic<br />

effects (carcinogenesis, mutagenesis, teratogenesis). Use <strong>of</strong><br />

mammals and sub mammalian systems in predicting and<br />

assessing toxic effects in man.<br />

Routes <strong>of</strong> ingestion <strong>of</strong> toxic substances including heavy<br />

metals, benzene, PCBs, solvents, organic chemicals, silica,<br />

asbestos, allergens and pesticides.<br />

Evaluation and control measures.<br />

Safety technology.<br />

Machine safety. Hazard identification. Principles <strong>of</strong> machine<br />

guarding. Assessment <strong>of</strong> dangers and guarding<br />

arrangements. Boilers and pressure vessels. Safety devices<br />

(valves, gauges, alarm systems). Safe working practices.<br />

Fire and explosion. Use <strong>of</strong> flammable and explosiw<br />

substances. Risks assessment. Fire precautions.<br />

Chemical safety. Handling, chemical safety, hazard<br />

identification, storage and transport <strong>of</strong> dangerous and toxic<br />

chemicals. Inspection <strong>of</strong> ventilation ducts for<br />

micro-organisms.<br />

SP5609 Physics 5-6<br />

6.0 credit points in semester one and 7.0 credit<br />

points in semester two<br />

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

semesters<br />

Assessment: practical work and examination<br />

A fourth-year subject for students majoring in medical<br />

biophysics.<br />

Subject description<br />

Solid state physics: tunnel diodes, PN and PIN photodiodes,<br />

PN detectors for protons, for alpha particles and for gamma<br />

rays.<br />

Superconductivity: basic phenomena, London equations,<br />

non-local electrodynamics. BCS theory and Ginzberg-Landau<br />

approach. Flux quantisation, Josephson effects, and<br />

superconducting quantum interference devices.<br />

Nuclear magnetic resonance: basic theory <strong>of</strong> NMR, CW and<br />

pulsed NMR experiments, NMR spectroscopy and magnetic<br />

resonance imaging.<br />

Non-linear dynamical systems: dynamical systems and phase<br />

space. Autonomous and driven systems. Point attractors and<br />

limit cycles. Poincare sections and maps. Strange attractorr,<br />

fractals and chaos. Chaotic behaviour in experimental<br />

systems.

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