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Why undertake a CDT PhD in Advanced Biomedical Materials?

• Enhance your employability with transferable skills.
• Develop strong links to collaborate worldwide and enhance the future of UK biomedical materials.
• Engage with established industry partners and develop new industrial partnerships.
• Take part in exciting outreach activities with school children and the general public.
• Contribute to improving the quality of life of our rapidly growing and ageing society.

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ºù«Ӱҵ the programme

As our growing and ageing population creates a greater demand for more effective and cost-effective healthcare, this CDT feeds the UK's need for resource, skills, industrial collaboration and cohort training.

Research focuses on developing and translating smart and responsive biomaterials with a particular emphasis on higher throughput, greater reproducibility of manufacture, and characterisation. Students will undertake clinically-relevant research with industry partners and advanced projects at The University of Manchester and ºù«Ӱҵ, helping to forge the next generation of UK leaders in biomedical materials research.

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Training

The CDT focusses on training the next generation of internationally leading postdoctoral engineers, who will enable innovation between industry, clinicians and academics to address areas of need. In addition to the formal academic doctoral training programme, you will be trained in transferable skills such as project management, dissemination and multidisciplinary communication.

Training also encompasses equality, diversity and inclusion, and you'll learn how to conduct research and innovation responsibly, taking account of potential societal impacts.

Students will be trained in

• bioelectronics
• fibre technology
• additive manufacturing
• improved pre-clinical characterisation
• manufacturing scale-up
• reproducibility

The CDT begins with a Manchester-based three-month taught programme, with a subsequent integrated training programme throughout. Research projects are co-created during the first six months by you, the supervisors and industrial, clinical and patient stakeholders. 

The three-month taught programme includes four 15-credit taught units to provide a foundation in Advanced Biomedical Materials:

• Research Methods - taking students through the principles of applying the theory for planning and managing their individual research project.
• Clinical Application of Biomaterials - introducing students to examples of biomaterials currently used in the clinic.
• Imaging, Characterisation and Key Manufacturing Techniques - delivering bespoke workshops and introducing students to advanced imaging and characterization techniques.
• Responsible Research and Innovation (RRI) - RRI will interface with the internationally leading RRI research and good practice programme developed at The University of Manchester, and will be embedded throughout the programme.

All students will have the opportunity to undertake a three-month placement in an industrial or academic setting - either in the UK or overseas - to enhance their CV during this four-year PhD programme.

Students will benefit from an innovative research-training environment, unique in the UK. Through the Henry Royce Institute Manchester, students will have access to £4 million of specialist biomedical materials research equipment in the areas of bioelectronics, fibre technology, additive manufacturing and improved pre-clinical characterisation.

Furthermore, an additional £8 million investment in the same themes will be made by February 2020, including light sheet and in vivo confocal microscopes at the Henry Royce Institute ºù«Ӱҵ, as well as additive manufacture and biomechanics suite and novel fibre technology equipment at Manchester.