Bioengineering University of Otago

Overview

The Bioengineering programme at the University of Otago provides an elite multidisciplinary environment for students to develop advanced solutions for biology and clinical practice. This curriculum integrates physics, mathematics, and biology to address complex challenges in medical research and population health studies.

Candidates benefit from being based within the Division of Sciences or Health Sciences, ensuring a robust academic foundation. The teaching is led by active researchers and clinicians who translate the latest laboratory findings into the classroom setting. This approach ensures that every student remains at the cutting edge of global medical technology developments.

Why Bioengineering at the University of Otago?

The University of Otago hosts the Centre for Bioengineering and Nanomedicine, an interdisciplinary hub with an international reputation for excellence. Students gain access to world-class scientists and cutting-edge facilities dedicated to pure and applied research. The institution maintains a global reputation for research excellence across health and sustainability sectors.

Distinctive teaching features include strong links with industrial partners, particularly in the development of commercial spectral scanners and medical wearables. The university's diverse strengths in physical and engineering sciences enable students to work on real-world problems. These partnerships provide a unique platform for postgraduate students to conduct high-impact research.

Tuition Fee Breakdown

• International fee: NZD 43750 per year
• National fee: NZD 10891 per year

Visit the Fees and Funding section for a breakdown in your local currency.

Syllabus

Modules may include:

• Research Methods
• Bioengineering Design
• Medical Devices and Technology
• Entrepreneurship
• Regenerative Medicine and Stem Cells
• Research Project
• Supervised Independent Study
• Master's Thesis Preparation

Careers with Bioengineering

Graduates are prepared for diverse roles in the medical technology and healthcare industries, focusing on the fabrication of medical devices. The programme supports career paths in regenerative medicine, molecular imaging, and the development of innovative RNA medicines. Many alumni progress into clinical research, diagnostic technology, or continue into doctoral studies.

Opportunities exist within sectors such as point-of-care technologies, where professionals design diagnostic wearables and telemedicine systems. The integration of computer science and digital modelling allows graduates to revolutionise patient care in hospital and remote settings. Industry demand remains high for specialists capable of translating cell-based therapies into clinical applications.