Please note - Swinburne University of Technology
Please note - Swinburne University of Technology
Please note - Swinburne University of Technology
Create successful ePaper yourself
Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.
5~535 Biomedical Project<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Subject description<br />
The development, construction and commissioning <strong>of</strong> a<br />
biomedical instrumentation system.<br />
~~537 Medical Imaging<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Assessment: assignments and tests<br />
Subject description<br />
Interrogation methods: beamed radiation (visible, IR,<br />
Microwave, X-ray, Ultrasound), internally deposited radiation<br />
(gamma rays, SPECT, PETT), selective excitation (NMR). Physical<br />
qualities <strong>of</strong> tissue measured by the interrogation.<br />
lmage construction methods: real-time ultrasound, interactive<br />
and filtered back-projection methods in tomography,<br />
algorithms and s<strong>of</strong>tware implementation.<br />
lmage enhancement methods: colour coding, edge detection,<br />
noise reduction, digital subtraction, entropy methods.<br />
Interpretation <strong>of</strong> images: image quality and contrast, system<br />
9.<br />
5. MTFs, ROC curves, information theory.<br />
E Reference<br />
Webbs (ed.), The Physics <strong>of</strong> Medical Imaging, Bristol, 1 OP, 1992<br />
0,<br />
E<br />
.G<br />
SP541<br />
Signal Processing<br />
12.5 credit points<br />
rn<br />
3 No. <strong>of</strong> hours per week: four hours<br />
'0.<br />
3 Assessment: assignments<br />
rn<br />
2. Subject description<br />
Linear and non-linear systems, response functions.<br />
nJ<br />
Signals, spectra, mean square estimation, orthogonality,<br />
probability, stationary and non-stationary stochastic<br />
processes.<br />
'L:<br />
Data, smoothing, windows, averages, filters, digital<br />
filters, recursive filters, auto-correlation, crosscorrelation.<br />
System estimation, spectral analysis, correlation and<br />
coherence, white noise methods.<br />
Digital processing review <strong>of</strong> DFT, FFT.<br />
lmage processing: image acquisition, enhancement,<br />
restoration, reconstruction and segmentation.<br />
SP542<br />
Optical lnstrumentation<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Assessment: assignments and examination<br />
Subject description<br />
Incoherent and coherent light sources, types <strong>of</strong> lasers and their<br />
applications. Detectors <strong>of</strong> optical radiation, modulation <strong>of</strong><br />
light, interferometer, lens design, fibre optics, Fourier<br />
transforms and imagery.<br />
~ ~ 5 4 4 Nuclear lnstrumentation<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Subject description<br />
Detectors. Amplifiers. Analysers. Spectrometers. Shielding.<br />
Pulse processing and shaping. Linear and logic pulse functions.<br />
Multi-channel pulse analysis. Energy and time resolution.<br />
Detector calibration. Radioisotopic assay. Tracer applications.<br />
Activation analysis. Whole body counters. Scanners.<br />
Scintillation cameras. Radiation effects and exposure limits.<br />
~~545 Instrument Programming and<br />
Interfacing<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Assessment: practical work, reports, assignments,<br />
examination<br />
Subject description<br />
Interfacing peripheral devices<br />
Interfacing techniques between computers and instruments.<br />
The Forth programming language. Handshaking multi-tasking,<br />
interrupts. Real time data handling.<br />
General purpose instrumentation bus (IEEE 488), the IZC bus.<br />
5~547 Instrument Electronics<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Assessment: examination and laboratory reports<br />
Subject description<br />
Electronics for biomedical instrumentation, including<br />
instrumentation amplifiers, isolation, noise suppression,<br />
microprocessors, etc. Use <strong>of</strong> a computer-based circuit design<br />
and simulation techniques.<br />
~~553 Introduction to lnstrumentation<br />
Electronics<br />
12.5 credit points<br />
No. <strong>of</strong> hours per week: four hours<br />
Assessment: practical work, reports and<br />
examination<br />
Subject description<br />
DC circuits, Ohms law, power dissipation, Kirch<strong>of</strong>f's laws,<br />
Thevenin's theorem, Norton's theorem; AC circuits, sine waves,<br />
amplitude, phase, phasor representation, complex number<br />
representation, capacitance, capacitive reactance, inductance,<br />
inductive reactance, impedance calculations for simple RLC<br />
circuits.<br />
Amplifiers, input impedance, output impedance, loads,<br />
operational amplifiers, the ideal operational amplifier, the<br />
inverting configuration, the non-inverting amplifier, the<br />
differential amplifier.