Engineering of Smart and Sustainable Biomaterials for Regenerative Orthopaedics Kingston University in United Kingdom

This PhD project at Kingston University London offers an exciting opportunity to contribute to the development of smart and sustainable biomaterials for regenerative orthopaedics. The research focuses on engineering next-generation ceramic-based implants that address both clinical needs and environmental sustainability, responding to the global challenge of musculoskeletal disorders and traumatic injuries. Conventional metal implants, while widely used, present significant limitations such as stress shielding, poor integration, and misalignment with sustainability goals. This project aims to overcome these issues by designing, fabricating, and evaluating ceramic biomaterials that are biocompatible, mechanically robust, and environmentally viable.

The project objectives include exploring various ceramic systems for biomedical applications, investigating sustainable processing strategies, and evaluating the biological and mechanical performance of engineered samples. Key properties such as porosity, compressive strength, and integration potential will be assessed, with a strong emphasis on reducing waste, energy consumption, and environmental impact. The research will also apply lifecycle and systems thinking to ensure that the developed biomaterials align with broader clinical and sustainability goals, including potential applications within the NHS and med-tech sectors.

Students will begin with a comprehensive review of current ceramic materials used in orthopaedics, identifying areas for innovation. The project will involve hands-on investigation of ceramic processing techniques such as powder-based shaping, sintering, and composite reinforcement, with a focus on methods that are accessible, energy-efficient, and scalable. Physical and mechanical testing will be conducted to characterise material properties, while environmental considerations will be integrated throughout the research process. Additive manufacturing may be explored to enhance geometric control and minimise material waste.

Biological evaluation will centre on in vitro studies to assess biocompatibility and cell-material interactions, ensuring that developed materials provide safe and stable platforms for bone integration. The project encourages consideration of real-world clinical translation, including regulatory standards, sterilisation, patient-specific variation, and the integration of sustainability metrics into biomaterials design.

The successful candidate will join the Faculty of Engineering, Computing and the Environment, benefiting from comprehensive training in ceramic characterisation, mechanical testing, materials processing, sustainable design principles, and academic communication. Laboratory facilities support both materials development and biological screening, and students will have opportunities to engage with industry and clinical collaborators, as well as present their work at national and international conferences.

Applicants from Biomedical Engineering, Materials Science, Mechanical Engineering, or related fields are encouraged to apply. While prior experience with biomaterials or medical device design is advantageous, a strong passion for research at the intersection of engineering, clinical impact, and sustainability is essential. Funding is available through the Graduate School studentships competition for October 2026 entry, with details provided on the Kingston University London PhD Studentships webpage. The application deadline is March 4, 2026.

For further information and application instructions, please refer to the Kingston University London PhD Studentships and Faculty research webpages.