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1997 Swinburne Higher Education Handbook

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."<br />

skills developed earlier in the course to a research project. It<br />

is preferred, but not essential, that the problem be employer<br />

based and have direct relevance to the student's<br />

employment.<br />

Credit points<br />

SM745 Project Planning 12.5<br />

SM748 Research Methodology 12.5<br />

SM749 Minor Thesis 25.0<br />

Application procedure<br />

Refer to page 168.<br />

m97<br />

Master of Engineering<br />

(Biomedical Engineering)<br />

EOB~ Graduate Diploma of Engineering<br />

in Biomedical Engineering<br />

~077 Graduate Certificate in Biomedical<br />

Engineering<br />

The Graduate Diploma/Master of Engineering (Biomedical<br />

Engineering) normally involves three years of part-time or<br />

one and a half years of full-time study. This course is<br />

intended for those interested in designing and developing<br />

biomedical equipment and/or practising the skills related to<br />

clinical biomedical engineering. The program includes both<br />

engineering and biomedical content to suit a variety of<br />

backgrounds.<br />

Entry requirements<br />

Entry to the Graduate Certificate, Graduate Diploma and<br />

Master of Engineering is open to applicants with a four year<br />

engineering or science qualification or to those with lesser<br />

qualifications but substantial and relevant experience.<br />

Course structure<br />

Students must complete 100 credit points for the Graduate<br />

Diploma and 150 credit points to complete the Masters,<br />

including relevant project work.<br />

Semester 1: EE740 Project Management &Research<br />

Methods plus 3 core subjects (50 credit points)<br />

Semester 2: EE760 Research Project A plus 2 core subjects;<br />

(50 credit points)<br />

Semester 3: EE761 Research Project B plus 2 core subjects<br />

(50 credit points).<br />

3<br />

Alternative structure:<br />

-,, Semester 1: EE740 Project Management &Research<br />

Methods plus 3 core subjects (50 credit points)<br />

3<br />

Semester 2: four core subjects (50 credit points);<br />

3. Semester 3: EE762 Major Research Project (50 credit points)<br />

(P<br />

Semester 1<br />

Credit Points<br />

Q<br />

EE740<br />

w<br />

* Project M'ment & Research Methods 12.5<br />

8. SP532 Clinical Monitoring Techniques 12.5<br />

SP534 Neuor~physiolo~ical Monitoring Techniques 12.5<br />

SP538 Clinical Engineering Management 12.5<br />

Semester 2<br />

EE760 Research Project A 25.0<br />

SP53 1 Biophysical Systems & Techniques (Biosensors)l2.5<br />

SP537 Medical Imaging 12.5<br />

SP547 Biomedical Instrumentation 12.5<br />

SP555 Introduction to Biophysical Systems 12.5<br />

Semester 3<br />

EE761 Research Project B 25.0<br />

EE762 Major Research Project 50.0<br />

Alternative subjects (subject to approval)<br />

EE530 Analogue Elec. Instr. & Techniques 12.5<br />

EE714 Digital Electronics Techniques 12.5<br />

EE730 * Engineering Software (or equivalent) 12.6<br />

EE732 Computer Architecture 12.5<br />

EE783 Digital Signal Processing Sys. Eng 12.5<br />

EE781 CAD & High level Synthesis 12.5<br />

* indicates subjects can be taken in either semester<br />

PO91<br />

Master of Engineering<br />

(Computer Integrated Manufacture)<br />

bv coursework and thesis<br />

The aim of the course is to prepare graduates from<br />

engineering and the physical sciences for future roles in the<br />

development and application of computer integrated<br />

manufacturing in Australian manufacturing industry. Such<br />

graduates must have proved academic ability.<br />

Computer integrated manufacturing is an important and<br />

effective means of achieving productivity improvements<br />

which must be seriously considered by manufacturing<br />

companies wishing to become and remain competitive, and<br />

which should be encouraged in the national interest so that<br />

application of appropriate technology can improve our<br />

ability to compete on international markets and against<br />

cheaper, high quality imports in the domestic market.<br />

Entrance requirements<br />

Candidates for the Master of Engineering (Computer<br />

Integrated Manufacture) shall satisfy the following<br />

requirements:<br />

They should have a four year engineering degree or<br />

equivalent. Applicants with other qualifications and<br />

experience which are considered by the Divisional Board to<br />

be of satisfactory standard will also qualify for entry.<br />

Applicants not holding an appropriate four year degree or<br />

equivalent may initially be admitted to the Graduate<br />

Certificate (CAD/CAM) or Graduate Diploma (CIM)<br />

program.<br />

Duration of course<br />

The course is a one and a half year equivalent full-time<br />

program incorporating the academic program for the Graduate<br />

Diploma in Computer Integrated Manufacture.The<br />

coursework and the project workfor Masters of Engineering<br />

(CIM) may be completed in one calandar year for a full-time<br />

course. Further options include a three and four year part-time<br />

format.

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