The musculoskeletal structures of the human head, neck and face contribute significantly to quality of life, our sense of identity, and general well-being. Indeed, significant trauma in this region may be life threatening through interference with the airway. Surgical intervention is always first concerned with preserving life, but the clinician must also seek to preserve the contours of the face to preserve aesthetics and identity. While traditionally this was achieved using alloplastic biomaterials, there is increasing interest in the use of tissue engineering and and other regenerative strategies to improve the clinical outcome.
This group of projects combines our expertise in digital acquisition and advanced manufacturing with research into scaffold biomaterials and regenerative dentistry. The Bioengineering & Health Technologies Group collaborate with academic staff in the Faculty of Engineering where we are investigating new composite biomaterials that are both suitable for use in advanced and additive manufacturing and at the same time offer significantly improved regenerative potential compared to existing medical materials. One relatively straightforward approach that has already been shown to offer potential is the incorporation of micro- and nanoscale particulate bioceramics into bioresorbable polymers.
Our goal is to fabricate custom-shaped scaffolds that promote the normal physiological healing of craniofacial bone and other tissues to provide the best functional and aesthetic outcomes possible, even in ageing or otherwise compromised patients. This result may be achieved by using live cells seeded onto porous scaffolds fabricated from existing medical materials. In the future, however, this work will allow the therapeutic potential of biologically active molecules to be be harnessed, promoting local tissue regeneration in the patient without the ex vivo culture of living cells.