3D printing multifunctional devices without internal interfaces for cartilage repair

Lead Research Organisation: University of Portsmouth
Department Name: Sch of Pharmacy & Biomedical Sciences

Abstract

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Publications

10 25 50
 
Description The material that has been developed is biocompatible and is not cytotoxic
The material that has been developed enhances the repair of cartilage defects
The porous bioglass that has been produced enhances bone formation, ingrowth and integration
Exploitation Route The development and translation of the research outputs into commercial implants that are used to repair cartilage defects or to enhance bone formation in bone defects
Sectors Healthcare

 
Description Collaboration with Imperial College 
Organisation Imperial College London
Country United Kingdom 
Sector Academic/University 
PI Contribution histology of the cartilage regeneration adjacent to material developed by Imperial College X- ray Computer Tomography imaging the bone ingrowth and the bone implant interface into bioglass X- ray Computer Tomography imaging the bone ingrowth and the bone implant interface into porous material developed by Imperial College Histology and quantification of bone ingrowth and osteointegration of bioglass implants Histology and quantification of bone ingrowth and osteointegration of porous material developed by Imperial College Measurement of the biocompatibility of the material developed by Imperial College
Collaborator Contribution Development of porous bioglass implant Development of porous bouncy bioglass implant
Impact 1 Publication see the relevant section 1 Talk given at the European Society of Biomechanics Edinburgh 2024: B.K. Morrison, G.Blunn, R. Bonithon , J. Zekonyte , A. Heyraud , F. Tallia (3), J.R. Jones , A. Karali .Comparison of Bone Formation in Novel Scaffolds using X-Ray Computed Tomography and Nano-Indentation
Start Year 2023