Research Focus
Bioorganized mechanics behaviour, modelling and friction properties, biomedical materials and regenerative medicine, local structure and material simulation, sensor and medical equipment design, material science and high molecular materials, mechanical and physical simulation and simulation, biomedical engineering, innovative technology applications, etc.
Programme Structure and Funding
The project is a full-time doctoral programme and is based on the following:3-4Year36-48(months)30,000Pounds sterling/year, place of study: Southampton, UK9Monthly enrolment, same year7Month7Day-end applications (national student needs)5Month7(Previously completed)
Entry Requirements
• Academic background: Master’s degree (GPA at Master’s Level) or higher in the relevant specialties with 2: 1 degree (master’s stage not less than 3.0) requires a certificate of degree and language requirement from an accredited university: IELTS total score not less than 6.5, not less than 6.0 for a single item or TOEFL total score not less than 81 for a single item and not less than 67
Application Materials
- Academic curriculum vitae (including research interest)
- Academic report card
- Information and e-mail for two current academic nominees
- Brief description of the research programme
- Research projects and mentor information
- Certificate of English proficiency (IELTS or TOEFL)
Tuition and Living Costs
Study and living costs
Housing: Full-time doctoral students can apply for in-school dormitories at a cost of approximately 1750-2400/ week. • Daily expenses: the cost of living in Southampton is relatively modest, living at approximately RMB 8000/ month.
Career Prospects
Under the direction of the Professor, students will systematically master forward-looking research methods such as biomechanical modelling, soft tissue engineering, biomimicry material design and biorestraint, and will have the capability to conduct integrated scientific research across engineering and life sciences.
Graduates have access to a wide range of development opportunities in the following areas:
- Higher education and research institutions: scientific research and teaching in the fields of biomechanicals, biological materials, organizational engineering, computing modelling, etc.;
- (a) Medical equipment and biomaterials industry: in research and development or engineering technical positions in the fields of implant design, skin substitution materials, medical imitation products, etc.;
- In the field of computing and simulation: engineering analysis and innovative design in the areas of modelling of biological systems, computational biomechanicals, limited meta-analysis, etc.;
- Interdisciplinary areas of innovation: research or entrepreneurship in emerging cross-disciplinary directions such as artificial intelligence medicine, biosensors, rehabilitation engineering and personal medicine.
Through systematic academic training and cooperation with internationalized scientific research, students not only acquire a deep theoretical foundation and engineering application, but also develop independent scientific thinking and cross-cutting collaborative capacity and provide a solid foundation for access to institutions of higher learning, research institutions or international innovative enterprises.
