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SHEFFIELD, United Kingdom

Grant
Agency: GTR | Branch: Innovate UK | Program: | Phase: Collaborative Research & Development | Award Amount: 428.39K | Year: 2012

This project will create a working prototype of a phosphate fibre production facility. Phosphate fibres can dissolve in water to produce materials that are present in the bones and are useful in treating damaged and broken bones. Creation of this production facility will provide the phosphate fibres in a form that can be used to make fabrics and this will be demonstrated by one of the project partners. Fabrics are much more convenient to handle than fibres alone and can be transformed into other products, such as reinforced plastics. These plastics can also dissolve in water and be applied in medicine, but also in other industries where the ability to dissolve in water would be of benefit. For example, recycling is a key issue for the future.


Grant
Agency: GTR | Branch: Innovate UK | Program: | Phase: Feasibility Study | Award Amount: 156.65K | Year: 2016

This project is a collaboration between Glass Technology Services Ltd and Sheffield Hallam University that will undertake a feasibility study to develop lower-energy routes to produce commercial soda-lime-silica glass. We propose to make changes in raw materials composition and balance, including the partial replacement of batch ingredients in a glass melting furnace to reduce melting temperatures and melting times, and consequently reduce energy consumption, costs and emissions by 5-10% across the UK glass manufacturing industry. An innovative and critical aspect of this research will be to apply chemistry techniques to waste products from other industries (e.g. rice husk, banana waste, sea shells) to develop raw materials that can be introduced into glass melting processes to either reduce the high temperature viscosity or provide lower energy input for fusion. If successful this project will lead on to a second stage programme of applied research targeted at developing scalable technology that can be introduced into the UKs 18 glass manufacturing sites.


Grant
Agency: GTR | Branch: Innovate UK | Program: | Phase: Feasibility Study | Award Amount: 120.98K | Year: 2015

The 12 month ‘Glass-based Proppant Optimised for Pure Propane Stimulation’ (Glass-PrOPPS) project will create a new consortium (Glass Technology Services, GTS and Swansea University, SU), to address a major barrier to the implementation of water-less fracking technologies through the development of a range of innovative, cost-effective customised glass-based proppants that are compatible with liquefied propane gas (LPG). This new technology will maximise productivity of the well, whilst minimizing the use of chemical additives and removing the need for large volumes of water. If successful the outcome from this project will facilitate the global industry-wide take-up of water-free, chemical-free, Pure Propane Stimulation (PPS) whilst increasing well productivity through improved penetration of proppant into well fractures, increased proppant permeability (the gas can escape through the packed proppant more easily) and greater resistance of proppant to back-flow. The project will demonstrate the feasibility (TRL=4) of a range of novel glass-based proppants to address a major barrier to the implementation of PPS technologies.


Grant
Agency: Cordis | Branch: FP7 | Program: CP-TP | Phase: NMP.2011.2.1-1 | Award Amount: 4.94M | Year: 2012

Ceramic composite materials have for many years been considered to show great promise in the repair of musculoskeletal defects. The materials can mimic the structure of bone, and devices made from the materials can be structured to closely match the mechanical requirements of implant sites. In addition, wide ranges of bioactivity are possible, from inert to fully resorbable. Bioceramics have most commonly been used to date in dentistry, and in some orthopaedic applications, e.g. as an injectable paste for vertebroplasty, or as a coating material for metal orthopaedic implants. However, advances in cellular medicine bring great opportunity for significant growth in the bioceramics industry bioceramics and bioceramic composites offer levels of bioactivity which far exceed those available from metal implants, together with combinations of strength and modulus which exceed anything which can be offered by bioactive polymers on their own. Working in tandem with cells, proteins and other biologically active agents (both from the host and introduced) bioceramic composites have the potential to revolutionise many treatments and therapies, giving new, highly effective early stage clinical interventions for conditions where no approach has existed to date. In order to deliver on the potential shown by bioceramic composites the combination of mechanical design, materials, processing, clinical delivery and subsequent biological interaction all have to be understood in an integrated and systematic way. This proposal will address this underlying research and technological challenge in order to develop new bioceramic products for five SME partner companies.


Grant
Agency: GTR | Branch: Innovate UK | Program: | Phase: Collaborative Research & Development | Award Amount: 1.04M | Year: 2015

This 3 year project will enable GTS to exploit the Apollo furnace technology plus glass science knowledge from the University of Sheffield, with direction provided by Sellafield Ltd and NNL, to develop the novel ‘Hazmelt’ thermal treatment process, capable of vitrifying a wide range of Intermediate Level Waste (ILW) streams. The Hazmelt process combines customised glass frits/oxide batch mixes with the ILW stream in a refractory lined melter which uses a novel electrode design (enabling a wide range of temperatures to be achieved) to melt, mix and vitrify the ILW to create a homogenised, highly durable end product with enhanced wasteform passivity and maximum volume reduction, offering a number of advantages over existing thermal treatment technologies for ILW. The project will demonstrate the Hazmelt technology through a series of furnace trials processing a range of simulated ILW compositions.

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