Enhancing material properties and longevity in maxillofacial reconstructive devices

Do you want to be involved in research that makes societal impact, contributing to material science development for maxillofacial/reconstructive science devices? Reconstructive science focuses on correcting malformations, cancer-related conditions, or traumatic injuries, particularly those affecting the skull, jaw, and facial regions. An array of materials from acrylic polymers to silicones and titanium can be used for rehabilitation. Their objectives are to restore function or replace anatomical sites, for example, a facial prosthesis to a cranial implant. The frequency of replacement of acrylic polymer and silicones varies based on several factors such as device design, patient lifestyle and environmental conditions, which consequently affect their longevity and performance.

The successful candidate will explore innovative methods to improve the durability, performance, and overall material properties of a variety of polymers and silicones used in reconstructive science devices. They will be based in the Faculty of Science and Engineering's new state of the art Dalton Building, which is equipped with outstanding research laboratories and facilities. In addition, the candidate will have the opportunity to interact with members of the AMFaces team (amfaces.org) and the Doctoral College to gain valuable experience and expertise for their future career pathway.

Project aims and objectives

The project's aims and objectives are:
1. Evaluate, test and compare a range of traditional and emerging materials used for facial rehabilitation devices for their material characterisation.
2. Characterise the effects of adding novel additives, pigments and fillers on both traditional and emerging materials for reconstructive science devices.
3. Evaluate how these materials perform under controlled environmental conditions representative of the prosthesis-appliance user.
4. Develop models to demonstrate potential integration of these materials into reconstructive science devices.

Essential: The ideal candidate will have achieved at least a 2:1 Honours degree in materials science, mechanical engineering, bioengineering, or other programmes with a focus on material testing and analysis.

Desirable: MSc or MRes in a relevant discipline such as additive manufacturing, medical devices, or materials science; dental or medical/health-related.

Skills, Knowledge and Experience:

Essential: Laboratory experience within mechanical/materials testing. Excellent written and oral communication skills. Great interpersonal skills and organisational skills. Self-motivated and proactive with good time management.

Desirable: Experience of working with polymers and materials characterisation. Knowledge or experience of medical/dental devices or prosthetics and computer-aided design.

Only Home students can apply. Home tuition fees will be covered for the duration of the 3.5-year award, which is £5,238 for the year 2026/27.

The student will receive a standard stipend payment for the duration of the award. These payments are set at a level determined by the UKRI, currently £21,805 for the academic year 2026/27.