The Doctor of Philosophy (PhD) in Biomedical Engineering is a research-intensive doctoral programme that integrates engineering principles with medical and biological sciences to advance healthcare technologies.
The programme focuses on developing innovative solutions in medical devices, diagnostics, biomaterials, and healthcare systems. Scholars engage in interdisciplinary research across areas such as biomechanics, biomedical imaging, tissue engineering, and bioinstrumentation.
Graduates are prepared for leadership roles in healthcare technology, research institutions, medical device industries, and academia.
PhD in Biomedical Engineering scholars will be able to:
PA1 Conduct original interdisciplinary research combining engineering and medical sciences.
PA2 Design and develop innovative biomedical technologies and devices.
PA3 Analyse complex biological and engineering systems for healthcare applications.
PA4 Apply advanced engineering methods to solve clinical and healthcare challenges.
PA5 Uphold ethical standards in biomedical research and innovation.
Knowledge
1 Demonstrate advanced understanding of biomedical systems and engineering principles.
2 Critically evaluate medical technologies and healthcare innovations.
3 Understand biomaterials, biomechanics, and biomedical instrumentation.
4 Apply computational and analytical methods to biomedical problems.
Skills
1 Conduct independent research in biomedical engineering and healthcare technology.
2 Design and test biomedical devices and systems.
3 Analyse experimental and clinical data using advanced tools.
4 Communicate research findings to academic, clinical, and industrial audiences.
Competencies
1 Demonstrate leadership in biomedical innovation and research.
2 Manage complex engineering and healthcare projects.
3 Contribute to advancements in medical technology and patient care.
4 Present and defend research findings in professional and academic settings.
The PhD in Biomedical Engineering is designed to develop advanced research and technical capabilities through structured coursework and independent investigation.
Scholars are required to select a research topic, conduct a comprehensive literature review, apply engineering and scientific methodologies, and produce a doctoral thesis of approximately 60,000–80,000 words.
The programme typically consists of 30–40% coursework and 60–70% research, with a final viva (oral defense) required for successful completion.
Assessment includes coursework, research projects, thesis submission, and viva defense.
The doctoral thesis must demonstrate originality, critical analysis, and a significant contribution to biomedical engineering.
Evaluation structure:
Dissertation Report – ⅔
Dissertation Defense – ⅙
Coursework / Publications – ⅙
An interim Master of Philosophy (MPhil) may be awarded upon successful completion of initial research stages and coursework, subject to institutional policies.
Ages 21 – 35
Ages 36 – 60
Ages 60+
- Biomedical Engineer
- Medical Device Research Scientist
- Clinical Engineer
- Healthcare Technology Consultant
- Academic Lecturer / Professor
- R&D Specialist in Medical Technology
Milestone 1:Research Foundation & Proposal Development |
||
|---|---|---|
| BME 101: Biomedical Systems & Biomechanics | ||
| BME 102: Research Methods & Bioethics | ||
| RES 101: Research Proposal Development | ||
Milestone 2:Biomedical Research & Innovation |
||
|---|---|---|
| BME 201: Biomedical Imaging & Instrumentation | ||
| BME 202: Data Analysis & Computational Modelling | ||
| RES 102: Academic Publications | ||
Milestone 3:Thesis Completion & Defense |
||
|---|---|---|
| BME 301: Data Interpretation & Findings | ||
| BME 302: Thesis Writing & Structuring | ||
| RES 103: Dissertation Submission & Viva | ||
Programmes are subject to periodic review. Modifications may be made to align with advancements in biomedical engineering, healthcare technologies, and research standards.
For more details or admissions contact now!
Andrew Barrow
Head of Admission Department