Type of institution: University/Higher Education Institution
Molecular Biotechnology will dominate science and technology in the 21st Century. Molecular biotechnologists will provide solutions to some of the most challenging and pressing problems facing humanity including prevention and control of human, animal and plant diseases, reversal of environmental degradation and feeding the world's population. 'DNA chips' can detect expression of thousands of genes enabling rapid diagnosis of many diseases in a single test. Individuals will have access to their own DNA sequence and hence predict their propensity to develop cancer, Alzheimer's, diabetes, heart failure and many other human diseases. Genetic engineering is being used to design new vaccines, antimicrobial agents and pharmaceutical drugs for prevention and control of many diseases - AIDS, malaria, tuberculosis, to name just a few. Plants and animals are being genetically modified to improve the world's food supply. Stem cells and tissue culture promise novel methods for organ replacement and injury repair. Graduates look forward to a wide array of challenging careers working alongside other scientists, medical and health-care professionals, engineers, computer software developers, lawyers, business professionals and entrepreneurs. Graduates are sought by government, academic and private research centres, and biomedical, agricultural and pharmaceutical industries. Graduates with commercial ideas and entrepreneurial skills may develop their own businesses and companies.
Core units only
- Molecular genetics
Standard entry requirements
Specifically it is desirable to have: Chemistry 3A/3B and Mathematics 3A/3B and Human Biological Science 3A/3B or Biological Sciences 3A/3B. STAT: WE and either V or Q. Applicants with relevant TAFE qualifications are encouraged to contact the School to discuss entry qualification and any Credit for Recognised Learning.
Applications for credit towards a course are assessed on an individual basis. Credit reduces the amount of learning required to complete the course and may be granted for formal education qualifications, non-formal learning from non-award programs of study and informal learning through work experiences. Further information can be found at http://futurestudents.curtin.edu.au.
|Campus||Fees||Entry||Mid year intake||Attendance|
|Bentley - main campus||International: $105,900||
The first year of the degree provides a general introduction to biomedical science and support disciplines. In the second year students gain a thorough understanding of the molecular biology of genetics, biochemistry, microbiology and immunology. The final year explores the molecular basis of disease and microbial pathogenesis and introduces students to analyses of molecular and genetic data with advanced bioinformatics software. Students learn to use cutting-edge techniques and laboratory instruments for sophisticated molecular and genetic analyses. Students debate the legal, social and ethical implications raised by the advent of molecular biotechnology. Finally there is an introduction to intellectual property, patents and commercial opportunities relevant to the biotechnology industry in Australia and the surrounding region.