MSc Biomedical Engineering
Course Overview
This MSc in Biomedical Engineering equips engineering, mathematics, and physical science graduates with the advanced skills to develop innovative engineering solutions for modern healthcare challenges. You will learn to design and evaluate medical devices and technologies by combining principles from engineering, biology, and medicine. The course prepares you for a leading role in improving patient care through technology, with a strong emphasis on ethical and societal implications.
Key Program Highlights
- Specialize with one of five dedicated pathways to tailor your degree to your career ambitions
- Learn from interdisciplinary teams of physicians, scientists, and engineers in a collaborative environment
- Develop and evaluate real-world medical products, from artificial organs to advanced prostheses
- Choose from a range of optional modules, including materials engineering and biological-inspired robotics
- Gain expertise informed by the University's pioneering Institute for Life Sciences and Zepler Institute for Photonics and Nanoelectronics
Course Overview
This MSc in Biomedical Engineering equips engineering, mathematics, and physical science graduates with the advanced skills to develop innovative engineering solutions for modern healthcare challenges. You will learn to design and evaluate medical devices and technologies by combining principles from engineering, biology, and medicine. The course prepares you for a leading role in improving patient care through technology, with a strong emphasis on ethical and societal implications.
Key Program Highlights
- Specialize with one of five dedicated pathways to tailor your degree to your career ambitions
- Learn from interdisciplinary teams of physicians, scientists, and engineers in a collaborative environment
- Develop and evaluate real-world medical products, from artificial organs to advanced prostheses
- Choose from a range of optional modules, including materials engineering and biological-inspired robotics
- Gain expertise informed by the University's pioneering Institute for Life Sciences and Zepler Institute for Photonics and Nanoelectronics
Requirements
Modules
- Human Biology & Systems Physiology
- Introduction to Biomedical Engineering
- MSc Research Project
- Translational Medicine
- Active Control of Sound and Vibration
- Advanced Computational Methods I
- Advanced Electrical Systems
- Advanced Finite Element Analysis
- Advanced Sensors and Condition Monitoring
- Biological Materials and Biomedical Devices
- Biomaterials
- Biomedical Application of Signal and Image Processing
- Biomedical Spectroscopy and Imaging
- Computational methods in biomedical engineering design
- Control and Instrumentation
- Design Search and Optimisation (DSO) - Principles, Methods, Parameterizations and Case Studies
- Failure of Materials and Components
- Finite Element Analysis in Solid Mechanics
- Fundamentals of Auditory Implants
- Heat Transfer and Applications
- Human Factors in Engineering
- Human Responses to Sound and Vibration
- Image Processing
- Manufacturing and Materials
- Medical Electrical and Electronic Technologies
- Numerical Methods
- Orthopaedic Biomechanics
- Physiology and Psychology of Hearing
- Rehabilitation of Auditory Disorders
- Robotic Systems
- Vestibular Audiology
