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The Materials and Fluid Flow Modelling Group is involved in the computer simulation and mathematical modelling of a range of materials and related materials processing techniques

The Materials and Fluid Flow Modelling Group is involved in the computer simulation and mathematical modelling of a range of materials and related materials processing techniques

An introduction to the core delivery staff of our Bridge Inspection Training Course, which consists of a blend of academia and industry who between them have extensive knowledge in the field of maintenance and repair of bridges.

The Materials and Engineering Research Institute within Sheffield Hallam is offering thermal analysis (TGA, TG-MS, ATD-GCMS) services to internal and external businesses.

The programme aims to develop a truly inherent (molecular-level) synthetic auxetic (negative Poisson's ratio) polymer for real-world application. Working with the Materials and Fluid Flow Modelling group, we are extending our previous work on scaling down known macrostructures for theoretical cross-linked polymers, and understanding natural auxetic inorganic and organic crystalline nanostructures, to a fully 3D system having connectivity similar to that achievable in elastomer materials.

Ronak started her PhD at SHU in 2014 in the field of sol-gel chemistry and energy storage. Her PhD was focused on sol-gel fabrication of ionogel electrolytes for double-layer supercapacitors. Following her PhD, Ronak used her background in sol-gel chemistry to enter the field of biomaterials by researching into bioactive glass ceramics for healthcare applications. She is currently part of the iPSpine project which aims to design a novel therapy for chronic lower back pain related to disc degeneration.

This project is working with a team of surgeons and an NHS business development manager to devise novel mechanical expansion mechanisms for an innovative new device – the LaparOsphereTM - for space creation and organ retraction in laparoscopic surgery.

This project is focussed on developing new and improved impact protection materials and is part of a wider collaboration with the Centre for Sports Engineering Research and also Manchester Metropolitan University. A process to produce large area or volume isotropic, anisotropic and gradient one-piece auxetic foams is being developed, foams produced and characterised for their mechanical and impact response properties. Significant reductions in peak acceleration are being found for the auxetic foams relative to their conventional counterparts.

Robin Smith joined Sheffield Hallam as a physics lecturer in August 2017 after completing his PhD in nuclear physics at the University of Birmingham. He is now a Senior Lecturer in Physics and specialises in the fields of nuclear structure and nuclear astrophysics, examining the shapes of atomic nuclei and determining the rates of fusion reactions in stars.

Approached by Chase Research Cryogenics because the company had encountered problems with a particular product that was in development. The task presented to us was to explore whether or not there were any alternative materials that could potentially be used in an effort to rectify those problems.