Polymer characterisation - Transport mechanisms
The competitive movement of small molecules through polymers, membranes and constitutes an important phenomenon in many applications
Polymers in life sciences
By applying our experience and expertise in polymer analysis, we are able to obtain useful insights into polymer behaviour and suggest solutions to material or processing challenges
Polymer characterisation - hydrolytic degradation of PET
The degradation of polymers by UV, heat, moisture or γ-irradiation is of significant importance in many different spheres of life
Other testing services within CIM
The Centre for Infrastructure Management can test a wide range of materials and products. A brief of each test we perform is given below.
Injectable hydrogels for bone regeneration
We have developed a novel pNIPAM-DMAc-Laponite® hydrogel loaded with hydroxyapatite nanoparticles (HAPna), which can be maintained as a liquid ex vivo and be injected into the affected bone tissue site where body temperature triggers in situ gelation
Expertise in clay-based polymer nanocomposites
We have extensive experience of incorporating clays into a range of petroleum derived polymers including polypropylene, polyamide, polyacrylates, polycaprolactone, polyvinylalcohol as well as biopolymers including starch, polylactic acid, chitosan and gelatin
Injectable hydrogels for IVD regeneration
Hydrogels are crosslinked polymers that contain large amounts of water. We have developed a novel hydrogel loaded with Mesenchymal Stem Cells (MSCs) which can be maintained as a liquid ex vivo and be injected into the affected tissue site where body temperature triggers in situ gelation.
Modelling Clay Polymer Nanocomposites
In collaboration with Prof Chris Breen and colleagues, we have been using molecular-resolution simulations of clay galleries to investigate detailed structural behaviours that underpin coating treatments used for food packaging applications.
Controlled release wound dressings
A novel wound dressings which is active against MRSA for four days has been developed in collaboration with colleagues from the Biomolecular Sciences Research Centre at Sheffield Hallam.
Self Assembly of Fibres and Ribbons
In this work, we are using molecular dynamics simulation to investigate the principles by which highly anisotropic nanostructures nucleate and grow