Bachelor of Genetics

3 Years On Campus Bachelors Program

Australian National University

Program Overview

This program is designed for curious, analytical students who want to understand how genes shape life — and how that knowledge can be used to solve real-world problems in health, agriculture, and biotechnology. You’ll build a strong foundation in genetics while learning how modern gene technologies are applied in research, industry, and emerging biological fields.

Curriculum Structure

Year 1
In your first year, you ease into university science while building the biological basics that genetics depends on. Units like Biology of Cells, Chemistry for Life Sciences, and Introduction to Genomics help you understand how DNA, cells, and molecules interact, all while getting comfortable with lab work and scientific thinking from day one.

Year 2
Second year is where genetics really comes alive. Through subjects such as Molecular Genetics, Bioinformatics, and Genetics and Evolution, you start analysing real genetic data, learning how genes are regulated, inherited, and expressed. Practical classes become more hands-on, and you’ll begin to see how genetics connects across medicine, ecology, and technology.

Year 3
By your final year, you’re thinking like a geneticist. Advanced units like Functional Genomics, Human and Medical Genetics, and Advanced Molecular Biology allow you to specialise, ask deeper questions, and work with complex datasets and experimental approaches. Many students finish with a research-focused project that mirrors the kind of work done in professional labs.

Focus Areas

Molecular genetics, genomics, bioinformatics, human and medical genetics, gene regulation, applied biotechnology

Learning Outcomes

Graduate with the ability to analyse genetic information, interpret biological data, and apply gene-based knowledge to real scientific and industry challenges.

Professional Alignment (Accreditation)

While this program isn’t tied to a single professional accreditation, it’s closely aligned with the expectations of modern biological and biomedical industries. The curriculum reflects how genetics is actually practiced today — giving you skills that translate naturally into research, health, biotech, and further study pathways.

Reputation (Employability & Rankings)

Studying genetics at Australian National University means learning in an environment known globally for research strength and graduate outcomes. ANU consistently performs strongly in international rankings such as QS World University Rankings and Times Higher Education, which employers recognise as a signal of quality, rigor, and job-ready graduates.

Experiential Learning (Research, Projects, Internships etc.)

Right from the start, the ANU Bachelor of Genetics is designed so you’re not just memorising facts about DNA in a lecture hall — you’re doing real genetics work that builds your scientific skills and career readiness. You’ll learn foundational concepts in evolution, molecular biology, and genomics, and then apply them through hands-on lab techniques, data interpretation, and problem-solving with real genetic data, preparing you for scientific roles where these skills matter. Over the three years, you’ll move into increasingly practical, research-focused courses that encourage you to experiment, analyse and communicate genetics in ways that mirror how geneticists work in real labs and industry settings. You’ll also have the flexibility to tailor your degree with electives and research projects that align with your interests in fields like conservation, medicine, or bioinformatics:

Experiential learning in the Bachelor of Genetics includes:

Compulsory laboratory based genetics core courses where you apply molecular and classical techniques, such as Genetics, Genes: Replication and Expression, and Genomics & its Applications, building hands-on laboratory skills across your degree.
Experimental Design and Analysis in Biology or Introduction to Quantitative Biology — courses focused on real analytical and statistical approaches used in scientific research.
Biological Science in the Workplace, a dedicated 3000-level course that places you within professional biology environments to tackle real problems outside the classroom.
Research project opportunities (Special Topics and Biology Research Project options) that let you work on a genetics-focused investigation, gaining authentic research experience and contributing to ongoing scientific questions.
Transdisciplinary Problem-Solving courses embedded in your study plan that challenge you to apply genetics knowledge to complex, real-world contexts beyond traditional science.
Elective choice across biology and related fields so you can pursue practical interests — from bioinformatics and data science for biologists to studying genetics in ecosystems and conservation — shaping your degree toward the kind of work you want to do.

This structure means you’re not just learning about genetics — you’re practising it, analyzing data like a scientist, and building a portfolio of real experiences that employers and postgraduate mentors value.

Progression & Future Opportunities

Graduates from ANU’s genetics degree step into a range of meaningful careers where science really matters. With this degree under your belt, you’ll be ready for roles such as clinical geneticist, genetic counsellor, bioinformatician, medical laboratory technician and other scientific positions in labs, hospitals or research settings. ANU has a strong reputation for employability nationally and globally, which employers value and which can open doors in research institutes, government and industry. Here’s what this means for you:

• Support that helps you land work: ANU students have access to ANU CareerHub, where you can find job listings, career resources, drop-in chats with career consultants and employer events that put you in front of real employers while you’re still studying. There are also personalised career planning services and workshops designed to sharpen your job search skills.

• Hands-on experience and internships: The genetics program encourages practical experience through internships and field opportunities, letting you gain real world skills that give you a competitive edge when you graduate.

• Strong national and research networks: As part of a university ranked highly for graduate employability in Australia, you’ll benefit from connections into industry and research communities that value ANU science graduates.

• Work-integrated pathways: You can explore options like vertical double degrees — combining your bachelor with a master’s year or two to graduate with both undergraduate and postgraduate credentials faster — a strong boost for specialised career pathways.

• Real outcomes and salary potential: ANU graduates in general have a strong employment track record and starting salary prospects that reflect both the quality of their training and the demand for skilled graduates in science fields.

Further Academic Progression:
If you love learning and want to go deeper after your bachelor’s, there are real options to build on your genetics foundation at ANU. A common next step is moving into Honours, which gives you an extra year of research-focused study and is often a requirement for doctoral programs. From there, you could apply for postgraduate research degrees such as a Master of Philosophy (MPhil) or Doctor of Philosophy (PhD) in genetics or related life sciences — pathways that suit careers in advanced research, academia or specialist scientific leadership. You could also tailor postgraduate coursework in biological sciences or related areas if you’re aiming at broader roles in industry, biotech, or health sectors. These pathways keep your options open, whether you want to stay in labs, lead research projects, or specialise even further in emerging areas of genetic science.