National Capability Database – Full listing
Precision Manufacturing
The Precision Manufacturing Centre at the University of Nottingham has an extensive range of state of the art precision manufacturing technologies including micro milling, micro EDM ... More info
Phosphate-based glass and fibre production
UoN has extensive experience of manufacturing resorbable glass and glass-fibres within the Centre for Innovative Structural Fibre Manufacture (CISFM). There are facilities for glass production, melt—drawn ... More info
Biocomposite Manufacture
UoN has extensive experience of manufacturing resorbable biocomposites reinforced with glass and glass-fibres within Composites Research Group. There are facilities for high pressure composite production via ... More info
Manufacture of Bulk and Porous microspheres
Very recent developments at Nottingham have resulted in creation of a Platform Technology for manufacture of microspheres from glass, glass-ceramic and ceramics.
... More infoPre-clinical Wear Simulation : Material Screening
iMBE has extensive pre-clinical wear simulation facilities with in excess of 80 stations for studying tribology of hip, knee and spine arthroplasty bearing materials and ... More info
Pre-clinical Wear Simulation: Hip testing capabilities
iMBE has extensive pre-clinical wear simulation facilities with in excess of 80 stations for studying tribology of hip, knee and spine arthroplasty bearing materials and ... More info
Pre-clinical Wear Simulation: Knee testing capabilities
iMBE has extensive pre-clinical wear simulation facilities with in excess of 80 stations for studying tribology of hip, knee and spine arthroplasty bearing materials and ... More info
Determination of friction for hip implants
To complement our pre-clinical wear simulation facilities we have capability to measure the friction of artificial and natural joints through a variety of methods, from ... More info
Determination of friction for knee implants
To complement our pre-clinical wear simulation facilities we have capability to measure the friction of artificial and natural joints through a variety of methods, from ... More info
Characterisation of Natural Biomaterial Properties
We have developed a range of testing methodologies in order to characterise the material properties of natural tissues. This includes tensile/compressive testing to failure, creep/stress ... More info
Decellularisation process for animal tissue
iMBE has extensive capability and know-how in a unique decellularisation process of animal tissues. Supported by an intellectual property portfolio on immunocompatible biomimetic natural scaffolds, and ... More info
Decellularisation process for human tissue
iMBE has extensive capability and know-how in a unique decellularisation process for human tissues. Supported by an intellectual property portfolio on immunocompatible biomimetic natural scaffolds, and ... More info
Development of analysis methods for decellularisation
Leeds has a unique capability in research towards clinical and commercial translation of biological scaffolds in musculoskeletal and cardiovascular applications. The expertise is in the development ... More info
Biocompatibility/immunology of prosthetic wear particles and biomaterials
Leeds has a unique capability in developing testing methods to understand the biological consequences of exposure to biomaterials for tissue replacement in the musculoskeletal system. Examples ... More info
Solid Phase orientation of biomedical or inert polymers
The Polymer IRC at Bradford has unique worldwide experimental and modelling facilities for ‘process structuring’, in this first case for deformation processing of polymers in ... More info
Micromoulding of high precision miniature products with specific surface features
A second case of our ‘Process Structuring’ is micromoulding – high speed, high precision moulding of 3-d components typically with large surface area to volume ... More info
Computer modelling over the length scales of biomedical polymers and composites
Finite element modelling including modelling of nanoscale, through to meso scale using representative volume elements and simulation technologies to achieve macroscopic scale prediction for material ... More info
Property gradient biomedical materials and products
We have expertise in biomedical materials, and have programmes involving property gradient materials including hydrogels for joint repair, and use the processing techniques above to ... More info
Nanofibre fabrication
Free-surface electrospinning capabilities are available for converting a large variety of biomaterials into fibres and webs suitable for integration in to prototype medical devices. The ... More info
Nonwoven scaffold/graft prototyping facility
Based upon a working width of 0.2-1m, industrially applicable pilot-scale facilities are available for the manufacture of nonwovens using drylaid, wetlaid, spunmelt, hydroentangling, needling, chemical ... More info
Characterisation of fibrous scaffolds and grafts
A suite of instrumental methods are available specifically for the characterisation of fibre-based scaffolds and grafts to ensure satisfactory product performance and to aid in ... More info
Microfibre production
Pilot scale wet spinning and melt-spinning facilities enable manufacture of continous filaments from solution spun and polymer-melts, with and without nanoparticle inclusions. Continuous in-line manufacture ... More info
Bioactive material development
Expertise and laboratory scale facilities for polymer and ceramic synthesis, and for the assessment of their mechanical and biological properties using in vitro assays and ... More info
Bioactive device design, development and batch manufacture
Wide range of additive manufacture, 3d printing and moulding technques to fabricate macro and micro porous bioactive structures in biopolymers (natural and synthetic), bioceramic and ... More info
Nanomaterial manufacture
Nanomaterials in both slurry and dry forms. These nanomaterials can be in the form of metals, metal oxides, phosphates, carbonates, sulfides, hydroxides
Morphology can be ... More info