Molecular genetics contributes to solutions to global problems, such as the prevention and control of human, animal and plant diseases, biosecurity, reversal of environmental degradation and feeding the world's population. "DNA chips" can detect the expression of thousands of genes enabling rapid diagnosis of many diseases in a single test. Individuals will soon 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.
Likewise, stem cells and tissue culture promise novel methods for organ replacement and injury repair, some of the biggest challenges for medical practitioners. Improving the world’s food supply is increasingly reliant on genetically modifying the production of plants and animals and trace amounts of DNA in the environment (eDNA) are being used to provide more complete estimates of biodiversity in terrestrial and marine environments.
This major is part of the Bachelor of Advanced Science (Honours), a course designed for high performing students to pursue their interest in Science through a core of research, leadership and entrepreneurship. It provides a flexible and personalised approach to studying Genetics with students able to explore the field through for-credit immersive research experiences, industry placement and/or interdisciplinary team-based projects. The major culminates in a capstone experience in which students will have the opportunity to pursue Genetics projects that may be based anywhere from pure research right through to translational (entrepreneurial) science.
Our graduates will be employed in a wide range of challenging careers working alongside other scientists, environmental scientists, medical and health-care professionals, engineers, agricultural scientist, agribusiness professionals computer software developers, lawyers, business professionals and entrepreneurs.
An understanding of genetics now underpins jobs related to biology (human health or environment). The deep knowledge of genetic processes and bioinformatics developed in this course opens the door to careers in research that is at the cutting edge of discoveries having demonstrable impacts on human health, environmental health and food security. Governments around the world are investing heavily in genetics research to enable these discoveries to career opportunities for those with the necessary skills are increasing rapidly.
What you'll learn
*Price shown is for indicative purposes, please check with institution
24 February 2020
Curtin University
Bentley Campus,
Kent Street,
BENTLEY,
Western Australia,
6102, PERTH, Australia
Students from different countries should have qualifications equivalent to Australian Year 12 and a scaled mark of at least 50 in English, Literature, or English as an Additional Language or Dialect.
English Language Requirements:
IELTS (International English Language Testing System) - Listening, Reading, Writing, and Speaking - 7.0; Overall band score 7.0; TOEFL Score: 79 (overall); Reading 13; Listening 13; Speaking 18; Writing 21; Pearson Test of English - Academic (PTE-A) 58; Occupational English Test (OET) Grade B in listening, reading, writing and speaking; Cambridge Certificate of Proficiency in English (CPE) Listening, Reading, Writing, and Speaking 190, Overall score: 176; Cambridge Certificate in Advanced English (CAE) Listening, Reading, Writing, and Speaking 176, Overall score:169.
There may be different IELTS requirements depending on your chosen course.
Curtin is placed in the top one per cent of universities worldwide in the prestigious Academic Ranking of World Universities 2017.