- Program Detail
M.Sc. in Biomedical Engineering
During this course, you will learn the fundamental scientific and technical aspects of biomedical engineering, alongside developing your knowledge of the relevant aspects of human biology in health and disease. This interdisciplinary course draws on expertise from leading departments within the University of Southampton, brought together through the Institute for Life Sciences; Engineering and the Environment, Medicine, Health Sciences, Natural and Environmental Sciences, and Electronics and Computer Science.
If you choose to, you will be able to specialise in your chosen area of biomedical engineering through themed areas of application: musculoskeletal, cardiovascular, imaging, diagnostic systems and audiology.
The course will enable you to thrive in an environment where teams from range of disciplines have work together efficiently. To help you succeed as biomedical engineer, the course features ‘problem-driven’ seminars, site and hospital visits, workshops and training sessions by experts from industry and national laboratories. This combination of advanced engineering, industrial experience and research enables our graduates to make a significant contribution to the development and translation of biomedical technology in both industry and academia.
You will develop the skills to apply advanced engineering in an interdisciplinary environment working in teams of physicians, scientists, engineers, business people and other professionals to monitor, restore and enhance normal body function, abilities and outcomes. You will also enhance your understanding of the ethical, safety and societal implications of developing medical technologies.
Through your research project you have a further opportunity to integrate your engineering skills with an understanding of the complexity of biological systems, enabling you to work successfully at the intersection of science, medicine and mathematics to solve biological and medical problems. Example research projects may include the design and performance evaluation of new devices to replace joints, or the development of new imaging methods to study bone or lung diseases.