Tissue Engineering and Regenerative Medicine


imageThe TERM cluster is undertaking internationally leading research in the development of biomaterials for tissue engineering and regenerative medicine applications. The work is lead by Professor Brian Meenan.

The main focus is to direct and control early-stage bioprocesses at the material-tissue interface via surface engineering strategies. Specifically, effects at the nano-scale (≤100 nm) that can interact with biological systems at the sub-cellular molecular level are being investigated for use in tandem with well-defined microstructural features.TERM focuses on the following themes. 

  • Biomaterial fabrication and modification
  • Bioreactors
  • Cell conditioning and characterisation
  • Advanced surface analysis

 

The main focus is to direct and control early-stage bioprocesses at the material-tissue interface via surface engineering strategies. Specifically, effects at the nano-scale (≤100 nm) that can interact with biological systems at the sub-cellular molecular level are being investigated for use in tandem with well-defined microstructural features.

imageIn this regard, an important strength of the group is expertise in state-of-the-art surface analysis techniques (XPS, ToF-SIMS, AFM, etc.) as applied to biomaterials research.

Direct assessment of the bio-functionality is facilitated via dedicated in-house cell culture facilities. The group has had a significant increase in international outreach with active collaborative interactions in Denmark, Italy, India, China, Cuba and the US. Significant industrial support for research (grant and/or consultancy) has been obtained from Unilever, Medtronic, Boston Scientific and EnBIO.

imageCore funded projects include: the use of RF sputter-deposited hydroxyapatite bioceramic coatings to provide bioactive cues that promote important cellular responses in vivo, thin film processing of advanced ceramics, regulation of oral protein interactions on calcium phosphate surfaces for dental applications, surface modification of biopolymers via atmospheric dielectric barrier (DBD) plasma processing (COLAPE) and the real time characterisation of cells in a dynamic cell-culture/bioreactor environment via the EPSRC Grand Challenge REMEDI Project, in collaboration with the universities of Loughborough, Nottingham, Cambridge, Birmingham and Liverpool. The group is a core partner (with Brunel, Nottingham and Birmingham universities) in the EPSRC-MATCH Innovative.

 

Ulster Business Festival: Connected Health 8th of May 2013

Dr Pilar Fernandez Guest Lecture

 

Dr Pilar Fernandez Guest Lecture: Solar Water Treatment Technologies At NIBEC, University of Ulster 4 pm on Wednesday 20 February 2013

Director