Professor Paul A. Bingham has over 20 years' experience in his field and has a strong international research group working primarily in glasses, ceramics, energy and waste management.
Paul contributes to teaching in Materials Engineering and he is a past Course Leader for our Part-Time and Full-Time Materials Engineering degree courses (FdEng, BEng (Hons)). He is also the Research Lead for the Department of Engineering and Mathematics.
Professor Paul A. Bingham gained a BEng (Hons) degree in Materials Science and Engineering from the University of Sheffield in 1995. He then pursued PhD studies, also at the University of Sheffield, on the topic of glass science and technology, and was awarded his PhD in 2000. In 1999 Paul joined Glass Technology Services Ltd as a Glass Technologist, and was promoted to Senior Glass Technologist in 2002. In this role Paul carried out industrially-focused R&D and problem-solving, ranging from development of new environmentally-friendly glasses to forensic examination and glass plant production problems.
In 2004 Paul returned to academia, joining the Immobilisation Science Laboratory (ISL) at the University of Sheffield as a Postdoctoral Research Associate. In this role Paul worked on glasses and ceramics for the safe immobilisation of radioactive and toxic wastes, and also on energy-friendly materials development and waste management.
Paul joined Sheffield Hallam University in January 2012 as a Senior Lecturer in Materials Engineering, and became a Reader in Materials Engineering in 2015 and Professor of Glasses and Ceramics in 2018. In 2019 Paul took on the role of Research Lead for the Department of Engineering and Mathematics. Paul contributes to teaching of Materials Engineering, with specific focus on materials composition / structure / property relations; and glass and ceramics technologies. Paul is a past Course Leader for our Part-Time and Full-Time Materials Engineering degree courses (FdEng, BEng (Hons)) and led the past two successful re-accreditations of these courses by the Institute of Materials, Minerals and Mining (IOM3).
To date Paul has published over 90 research papers, articles and patent applications in the fields of glasses; glass-ceramics; energy and the environment; waste management and nuclear and toxic waste treatment; advanced spectroscopy; and manufacturing technologies. He has co-edited and co-authored a book on the subject of low-energy, environmentally-friendly glasses and he has a strong track record in attracting research funding from bodies as diverse as UK Research Councils, Innovate UK, BEIS, European Union, US Department of Energy and industry. He currently holds a number of active research grants. He is Director of Studies for several PhD students and line manages many postdoctoral researchers, visiting academics and interns.
Paul is a Fellow of the Society of Glass Technology and is Secretary of its Basic Science and Technology Committee. He is a Fellow of the Higher Education Academy and is also a member of the Institute of Physics and the Association for the History of Glass. He is a reviewer for over 10 international journals, the US DoE Nuclear Energy Universities Programme and EU H2020 funding bids.
Paul sits on several international and national committees. He is a member of the International Commission on Glass Technical Committee 5: Waste Vitrification and the RAL-ISIS Neutron User Committee. He was elected onto the Sector Decarbonisation Roadmap Committee for the ceramics industry, which directly advises the UK Government in this area. He is also a lead Academic Advisor to Glass Futures, which aims to develop a state-of-the-art training and R&D facility in glass. Paul also carries out a wide range of consultancy activities. He has consulted for the UK Government's Committee on Climate Change and for the ceramics, optoelectronics and glass industries. He also acts as an international expert witness and has worked with some of the world's largest and most well-known companies in his field. He has organised multiple conferences and was Chair of the Local Organising Committee for the highly successful Centenary Conference of the Society of Glass Technology in 2016. He has given many Invited Presentations at international conferences, and actively engages with the international academic and industrial communities.
- Research Lead, Department of Engineering and Mathematics since 2019.
- Professor of Glasses and Ceramics since 2018; previously Reader in Materials Engineering (2015 - 2018); and Senior Lecturer in Materials Engineering (2012 - 2015);
- Past Course Leader (2012 - 2016) for SHU Part-Time and Full-Time Materials Engineering degree courses (FdEng, BEng (Hons)) in Materials Engineering and Forensic Engineering;
- Led successful re-accreditation of SHU Materials Engineering degree courses by the Institute of Materials, Minerals and Mining (IOM3) in 2013 and in 2016;
- Mentor for junior academic staff;
- Former member of SHU Research Concordat Sub-Committee;
- Member of the ACES KTP Steering Group;
- BMRC / MERI Research Engagement Committee member;
- Laboratory Manager for the MERI Ceramics and Glass Laboratory and MERI Mössbauer Spectroscopy Laboratory;
- Member of MERI Executive Committee and Senior Leadership Group;
- Member of MERI mini-REF panels for both 2014 and 2020 REF submissions;
- STA Faculty Research Ethics Reviewer.
Specialist areas of interest:
- Materials Engineering;
- Glasses and Ceramics.
Department of Engineering and Mathematics
Science, Technology and Arts
Module Leader for:
- Engineering Ceramics and Polymers - this module delivers a thorough understanding of ceramic and polymeric materials.
- Supervision of FdEng, BEng(Hons), MEng and MSc project students
- Polymers, Nanocomposites and Modelling Research Centre
- Materials and Engineering Research Institute
Postdoctoral and Visiting Researchers
- BACKHOUSE, Daniel
- CHEN, Tzu-Yu
- DENG, Wei
- KILINC, Erhan
- MANIA, Mania
- SCRIMSHIRE, Alex
- VAISHNAV, Shuchi
- WILDING, Martin
September 2018 – Ongoing: BiomAsh – Optimising biomass ash to reduce environmental impact of amber & green container glass
Funded by BEIS. Project PDRA: Dr. Wei Deng
This project is a collaboration of 6 partners, with in-kind support from the British Glass trade associations, two glass manufacturers and three power plants, with aims to tackle the energy trilemma in the UK and global glass industries.
The project will explore changes in raw materials composition and balance by incorporating waste ashes from biomass energy-from-waste (EfW) plants, including partial replacement of mined / man-made raw materials in a glass melting furnace, to reduce glass melting temperatures, times and dependence on finite raw materials, and thus to reduce consumption, costs and CO2 emissions by 5-10% across the UK glass industry.
The critical innovative aspect of this work will be to apply chemistry techniques to biomass ash by-products to develop new, cost-effective raw materials that can be introduced into glass melting processes (the first new glassmaking raw materials to be implemented in 50 years) to reduce high temperature viscosity and provide lower energy input for fusion, directly impacting on all 3 aspects of the energy trilemma. The project builds on a successful Early Stage programme and is targeted at developing scalable technology that can be introduced into the UK’s 22 glass manufacturing sites.
September 2018 – Ongoing: EnviroGlass 2 – Optimising biomass ash to reduce the environmental impact of glass manufacture
Funded by Innovate UK. Project PDRA: Dr. Daniel Backhouse
This project, led by GTS and supported by British Glass (representing the 8 main UK flat and container glass manufacturers) and Sheffield Hallam University (SHU), creates a new consortium with Ashwell Biomass, Templeborough Biomass Power Plant, Power Minerals and Glassworks Services. This project brings together three industrial sectors (Glass, Ceramics, Biomass Energy) for the first time to develop new raw materials for glass and ceramics manufacture. This project builds upon outputs from IUK Energy Catalyst Feasibility Study (IUK: 132334) 'EnviroGlass Melting', which assessed a range of wastes as potential new raw materials in glass manufacture to reduce melting temperatures, CO2 emissions and costs. The project proposed here builds upon these findings to address the challenges identified, developing new raw materials and demonstrating suitability for glass (TRL=7) and ceramics (TRL=3-4) industries to improve productivity and reduce:
(i) Energy requirements (up to 10%)
(ii) Raw materials costs (up to 10%)
(iii) UK landfill (up to 75kT/yr)
Funded by EPSRC. Project PDRA: Dr. Martin Wilding
The overarching goal of this project is to establish the technological potential, through a proof - of - concept study, of an entirely new family of glassy materials which could safely and stably incorporate high levels of CO2 by locking it away within the structure of the material in a stable form that is resistant to air, heat and light. In doing so it is believed this will present multiple new properties and in so doing this will enable transformative industrial changes in the way we manufacture, use, recycle and think about glass. Carboglass could provide multiple new innovation platforms for advanced materials and manufacturing technologies; carbon capture and storage; nuclear decommissioning; and energy and CO2 emissions reduction, thereby impacting upon policy, health and quality of life; delivering the capability to disrupt existing business models and contributing towards a more resilient, productive and prosperous nation. This research could lead to new technologies that provide the UK glass industry with CO2 emissions savings of up to 50% (1.25MT/yr) and increase resource efficiency by up to 20% (1 MT/yr, saving £100M/yr). It could also provide a new path for treatment of carbon-rich radioactive wastes, and could become a leading carbon capture and storage (CCS) technology. This disruptive development could lead to new high-skilled UK jobs and offer a technology platform for uptake by other industries. Public benefits of this research will include improved environment and quality of life (lower CO2 emissions and energy use; safer nuclear waste, new functional materials leading to new products and processes); disruption of business models (UK jobs and wealth creation); and raised public interest in science and technology. Carboglass represents an opportunity for the UK to lead the world in new, clean and green technologies and simultaneously provides multiple new pathways for a resilient, productive and healthy UK.
January 2018 - Ongoing: New Industrial Systems: Manufacturing Immortality
Funded by EPSRC. Project PDRA: Dr. Tzu-Yu Chen
The development of future real-world technologies will be dependent on our ability to understand and harness the underlying principles of living systems, and to direct communication between biological parts and man-made materials. Recent advances in DNA synthesis, sequencing and ultra-sensitive analytical techniques amongst others, have reignited interest in extending the repertoire of functional materials by interfacing them with components derived from biology, blurring the boundary between the living and non-living world. These bio-hybrid systems hold great promise for use in a range of application areas including, for example, the sensing of toxins or pollutants in our environment, diagnosing life-threatening illnesses in humans and animals, or delivering drugs to specific locations within patients bodies to treat a range of diseases, e.g. cancer.
During this project we will develop innovative manufacturing methods to enable the reliable and scaleable production of evolvable bio-hybrid systems that possess the inherent ability to sense and repair damage, so-called 'immortal' products. This will ultimately lead to the development of products and devices that can continue to function without needing repair or replacement over the course of their life. For example, imagine a mobile phone that can self-repair its own screen after being dropped, or a circuit board in a laptop computer that can repair itself after being short-circuited. The outputs of this project have the potential to provide solutions to some of our greatest societal challenges and by doing so to reinvigorate the UK manufacturing industry by establishing it as a world leader in the production of self-healing systems. Efforts will focus on three specific application areas. These are:
1. Electrochemical energy devices, e.g. fuel cells and batteries that are needed to power our everyday lives, from mobile phones to electric cars.
2. Consumer electronics, which underpin many of the core technologies that we encounter and use on a day-to-day basis, e.g. computers or televisions.
3. Safety critical systems that are used in the nuclear industry and deep sea technologies, e.g. deep sea cables that can withstand many years of use without needing to be replaced.
2013 - ongoing: Glass chemistry and processing issues - radioactive waste glasses.
Funded by US Department of Energy International Cooperation Programme.
Certain nuclear wastes within the US DOE complex contain relatively high concentrations of sulphur, which has a low solubility in borosilicate glass. This dictates that the waste be blended with lower sulphur concentration waste sources or heavily washed to remove sulphur levels prior to vitrification. High concentrations of sulphur can also impose a limit on waste loading, which in turn hinders waste throughput for a vitrification plant. It is therefore desirable to develop enhanced borosilicate glass compositions with improved sulfur solubility. This project has focussed on developing improved understanding of the mechanisms and effects of sulphur incorporation in glasses relevant to radioactive waste vitrification. Other issues associated with high-iron wastes, phosphorus in wastes, and cold cap melters are also currently being investigated.
Past Research Projects
October 2016 - September 2017: Briquetting of recycled glass fines for energy and CO2 reduction in the glass industry.
Funded by EPSRC. Project PDRA: Dr Wei Deng
The global glass manufacturing sector uses 140 - 220 Terawatt-hours of energy and emits 50-60 million tonnes of CO2 per year. Manufacturing inefficiencies are such that, without intervention and increased product demand, global CO2 emissions from glass making are forecast to increase by 20% by 2019. In the UK alone the glass industry produces over 3 million tonnes of glass per year, using 4.5 Terawatt-hours of energy (1.4 Megawatt-hour per tonne of glass melted), and emits 2 million tonnes of CO2. The energy required for melting glass in a furnace accounts for 75% of the energy consumption. Melting furnaces typically have 50-60% efficiency; however, the introduction of recycled glass (cullet) significantly reduces glass melting energy requirements and CO2 emissions. The availability of quality cullet is an industry-wide challenge - 20% is rejected every year and sent to landfill. In this project we are studying a novel briquetting process that turns rejected cullet (fines) into valuable waste materials re-introduced into glass manufacture. The technology being developed has potential to (i) reduce the glass industry's CO2 emissions by up to 8%; (ii) Secure the long term UK & global supply of cullet and (iii) reduce the industry's energy costs by 4-8%. This project utilises a test briquetting line, with laboratory scale glass melting and testing equipment.
July 2016 - June 2017: Lower-energy routes to commercial soda-lime-silica glass manufacture through changes in the raw materials balance.
Funded by Innovate UK. Project PDRA: Dr Charikleia Spathi
Commercial glass making is a key industrial sector that contributes £1.3bn p/a to the UK economy and is worth $98bn globally. Although significant improvements have been made over the last 20 years, it is still an environmentally inefficient sector that globally produces 108MT of flat and container glass, accounting for c. 220 TWh of energy consumption and 50-60MT of CO2 emissions. In the UK alone, the sector produces 3MT of glass, emits 2MT of CO2, and uses 4.5TWh of energy. The subsequent UK energy cost is £70m p/a. In an industry that is growing by 7.2% p/a this poses a significant environmental challenge. The fundamental issue in glass making is the inefficiency of melting processes which consume 75% of the total energy. Commercial furnaces operate at 50-60% efficiency because high temperatures of 1500-1600oC are required to melt the raw materials. This project is a feasibility study to develop lower energy routes to produce glass by changing the raw materials balance and partially replacing standard raw materials with waste stream and by-product materials. If successful the process could save c. 225-450 GWh of energy and reduce CO2 emissions by 200,000T p/a in the UK.
2014 - 2017: Light innovative materials for enhanced solar efficiency (LIMES).
Funded by EU Solar-Era Net.
There is a global drive to lower the cost of solar generated electricity. The cost per watt peak (€/Wp) can be reduced by increasing PV efficiency, reducing cost of the Balance of System (BOS) and minimizing the module costs. Module assembly is material extensive and constitutes a significant part of the price. Currently, 3 mm glass is the predominant cover of solar modules and it implies 30 % of the price. Reduction of encapsulant materials can help to minimize the foot print of the solar panel by minimized cost over the whole chain from raw materials to installation. The aim of the project is to exploit the development of 1 mm toughened glass as encapsulant to produce a light weight, low cost PV module with enhanced efficiency. We are developing new glasses and new coatings to improve the physical properties of the cover material of PV modules. Furthermore, novel toughening techniques of thin glass are being investigated, and prototypes assembled. We strive towards:
- Ultrathin glass-glass modules;
- Eliminating the transmission limit of solar glasses;
- Ultra-robust module designs with extended lifetime.
Collaborators and Sponsors:
Paul works with a wide range of industrial collaborators and sponsors, from large multinationals to SME's, to Government and NGO's and other academic institutions. Here is a selection of these:
Johnson Matthey, Morgan Advanced Materials, Pilkington NSG, Glass Technology Services, Lucideon, British Glass Manufacturers Confederation, British Ceramics Confederation, Wright Engineering, Cogent Power, Mayflower Engineering, Mansol (Preforms), University of Oxford (UK), University of Warwick (UK), University of Birmingham (UK), University of Nottingham (UK), Loughborough University (UK), Université de Pierre et Marie Curie de Paris (France), University of Padova (Italy), University of Brescia (Italy), Tokyo Metropolitan University (Japan), Rutgers University (USA), Savannah River National Laboratory (USA), and Pacific Northwest National Laboratory(USA).
Ali, A.S., Nomura, K., Homonnay, Z., Kuzmann, E., Scrimshire, A., Bingham, P.A., ... Kubuki, S. (2019). The relationship between local structure and photo-Fenton catalytic ability of glasses and glass-ceramics prepared from Japanese slag. Journal of Radioanalytical and Nuclear Chemistry. http://doi.org/10.1007/s10967-019-06726-z
Ali, A.S., Ishikawa, S., Nomura, K., Kuzmann, E., Homonnay, Z., Scrimshire, A., ... Kubuki, S. (2019). Mössbauer and photocatalytic studies of CaFe2O4 nanoparticle-containing aluminosilicate prepared from domestic waste simulated slag. Journal of Radioanalytical and Nuclear Chemistry. http://doi.org/10.1007/s10967-019-06715-2
Deng, W., Wright, R., Boden-Hook, C., & Bingham, P. (2019). Melting behaviour of waste glass cullet briquettes in soda-lime-silica container glass batch. International Journal of Applied Glass Science, 10 (1), 125-137. http://doi.org/10.1111/ijag.12555
Christopoulou, G., Modarresifar, F., Allsopp, B., Jones, H., & Bingham, P. (2019). Non-isothermal crystallization kinetics and stability of leucite and kalsilite from K2O-Al2O3-SiO2 glasses. Journal of the American Ceramic Society, 102 (1), 508-523. http://doi.org/10.1111/jace.15944
Page, J., Topping, C., Scrimshire, A., Bingham, P., Blundell, S., & Hayward, M. (2018). Doped Sr2FeIrO6 – phase separation and a Jeff ≠ 0 state for Ir5+. Inorganic Chemistry, 57 (16), 10303-10311. http://doi.org/10.1021/acs.inorgchem.8b01539
Cassidy, S.J., Orlandi, F., Manuel, P., Hadermann, J., Scrimshire, A., Bingham, P., & Clarke, S.J. (2018). Complex magnetic ordering in the oxide selenide Sr2Fe3Se2O3. Inorganic Chemistry, 57 (16), 10312-10322. http://doi.org/10.1021/acs.inorgchem.8b01542
Ahmadzadeh, M., Olds, T.A., Scrimshire, A., Bingham, P., & McCloy, J.S. (2018). Structure and properties of Na5FeSi4O12 crystallized from 5Na2O–Fe2O3–8SiO2 glass. Acta Crystallographica Section C: Structural Chemistry, 74 (12), 1595-1602. http://doi.org/10.1107/S2053229618014353
Ahmadzadeh, M., Olds, T., Scrimshire, A., Bingham, P., & McCloy, J. (2018). Structure and properties of Na5FeSi4O12 crystallized from 5Na2O-Fe2O3-8SiO2 glass. Acta Crystallographica Section C: Structural Chemistry, 1595-1602. http://doi.org/10.1107/S2053229618014353
Mary, N., Rebours, M., Castel, E., Vaishnav, S., Deng, W., Bell, A., ... Bingham, P. (2018). Enhanced thermal stability of high-bismuth borate glasses by addition of iron. Journal of Non-Crystalline Solids. http://doi.org/10.1016/j.jnoncrysol.2018.07.061
Allsopp, B., Christopoulou, G., Brookfield, A., Forder, S., & Bingham, P. (2018). Optical and structural properties of d0 ion-doped silicate glasses for photovoltaic applications. Physics and Chemistry of Glasses : European Journal of Glass Science and Technology Part B, 59 (4), 193-202. http://doi.org/10.13036/17533562.59.4.003
Deshkar, A., Ahmadzadeh, M., Scrimshire, A., Han, E., Bingham, P., Guillen, D., ... Goel, A. (2018). Crystallization behavior of iron- and boron-containing nepheline (Na2 O●Al2 O3 ●2SiO2 ) based model high-level nuclear waste glasses. Journal of the American Ceramic Society, 102 (3), 1101-1121. http://doi.org/10.1111/jace.15936
Deng, W., Wright, R., Boden-Hook, C., & Bingham, P. (2018). Briquetting of waste glass cullet fine particles for energy-saving glass manufacture. Glass Technology: European Journal of Glass Science and Technology Part A, 59 (3), 81-91. http://doi.org/10.13036/17533546.59.3.013
Scrimshire, A., Lobera, A., Bell, A., Jones, H., Sterianou, I., & Bingham, P. (2018). Determination of Debye Temperatures and Lamb-Mössbauer Factors for LnFeO3 Orthoferrite Perovskites (Ln = La, Nd, Sm, Eu, Gd). Journal of Physics: Condensed Matter, 30 (10). http://doi.org/10.1088/1361-648X/aaab7d
Guo, J., Bamber, T., Singh, J., Manby, D., Bingham, P., Justham, L., ... Jackson, M. (2017). Experimental study of a flexible and environmentally stable electroadhesive device. Applied Physics Letters, 111 (25), 251603. http://doi.org/10.1063/1.4995458
Benassi, L., Dalipi, R., Consigli, V., Pasquali, M., Borgese, L., Depero, L.E., ... Bontempi, E. (2017). Integrated management of ash from industrial and domestic combustion : a new sustainable approach for reducing greenhouse gas emissions from energy conversion. Environmental Science and Pollution Research, 24 (17), 14834-14846. http://doi.org/10.1007/s11356-017-9037-y
Wright, A.C., Sinclair, R.N., Shaw, J.L., Haworth, R., Bingham, P., Forder, S., ... Vedishcheva, N.M. (2017). The Environment of Fe3+/Fe2+ Cations in a Sodium Borosilicate Glass. Physics and Chemistry of Glasses : European Journal of Glass Science and Technology Part B, 58 (3), 78-91. http://doi.org/10.13036/17533562.58.3.016
Bamber, T., Guo, J., Singh, J., Bigharaz, M., Petzing, J., Bingham, P., ... Jackson, M. (2017). Visualization methods for understanding the dynamic electroadhesion phenomenon. Journal of Physics D: Applied Physics, 50, 205304. http://doi.org/10.1088/1361-6463/aa6be4
Bingham, P., Vaishnav, S., Forder, S., Scrimshire, A., Jaganathan, B., Rohini, J., ... Vienna, J. (2017). Modelling the sulfate capacity of simulated radioactive waste borosilicate glasses. Journal of Alloys and Compounds, 695, 656-667. http://doi.org/10.1016/j.jallcom.2016.11.110
Mediero-Munoyerro, M.J., McGregor, J., McMillan, L., Al-Yassir, N., Bingham, P., Forder, S., ... Midgley, P.A. (2016). Structural changes in FeOx/γ-Al2O3 catalysts during ethylbenzene dehydrogenation. Catalysis, Structure and Reactivity, 2 (1), 25-32. http://doi.org/10.1080/2055074X.2016.1234116
Modarresifar, F., Bingham, P., & Jubb, G. (2016). Thermal conductivity of refractory glass fibres. Journal of Thermal Analysis and Calorimetry, 125 (1), 35-44. http://doi.org/10.1007/s10973-016-5367-0
Clemens, O., Marco, J.F., Thomas, M.F., Forder, S., Zhang, H., Cartenet, S., ... Berry, F.J. (2016). Magnetic interactions in cubic-, hexagonal- and trigonal barium iron oxide fluoride, BaFeO2F. Journal of Physics: Condensed Matter, 28 (34). http://doi.org/10.1088/0953-8984/28/34/346001
Scrimshire, A., Lobera, A., Kultyshev, R., Ellis, P., Forder, S., & Bingham, P. (2016). Variable temperature 57Fe-Mössbauer spectroscopystudy of nanoparticle iron carbides. Croatica Chemica Acta, 88 (4). http://doi.org/10.5562/cca2782
Sun, H., Woodruff, D.N., Cassidy, S.J., Allcroft, G.M., Sedlmaier, S.J., Thompson, A.L., ... Clarke, S.J. (2015). Soft chemical control of superconductivity in Lithium Iron Selenide Hydroxides Li1–xFex(OH)Fe1–ySe. Inorganic Chemistry, 54 (4), 1958-1964. http://doi.org/10.1021/ic5028702
Chen, Y.-.C., Reeves-McLaren, N., Tan, C.C., Bingham, P., Forder, S., & West, A.R. (2015). Synthesis and characterisation of Li11RE18M4O39−δ: RE = Nd or Sm; M = Al, Co or Fe. Dalton Transactions, 45 (1), 315-323. http://doi.org/10.1039/c5dt02998h
Sun, H., Woodruff, D.N., Cassidy, S.J., Allcroft, G.M., Sedlmaier, S.J., Thompson, A.L., ... Clarke, S.J. (2015). Soft Chemical Control of Superconductivity in Lithium Iron Selenide Hydroxides Li1-xFex(OH)Fe1-ySe. INORGANIC CHEMISTRY, 54 (4), 1958-1964. http://doi.org/10.1021/ic5028702
Bingham, P., Hannant, O.M., Reeves-McLaren, N., Stennett, M.C., & Hand, R.J. (2014). Selective behaviour of dilute Fe3+ ions in silicate glasses: an Fe K-edge EXAFS and XANES study. Journal of Non-Crystalline Solids, 387, 47-56. http://doi.org/10.1016/j.jnoncrysol.2013.12.034
Hyatt, N.C., Schwarz, R.R., Bingham, P., Stennett, M.C., Corkhill, C.L., Heath, P.G., ... Morgan, S. (2014). Thermal treatment of simulant plutonium contaminated materials from the Sellafield site by vitrification in a blast-furnace slag. Journal of Nuclear Materials, 444 (1-3), 186-199. http://doi.org/10.1016/j.jnucmat.2013.08.019
Rodella, N., Bosio, A., Zacco, A., Borgese, L., Pasquali, M., Dalipi, R., ... Bontempi, E. (2014). Arsenic stabilization in coal fly ash through the employment of waste materials. Journal of Environmental Chemical Engineering, 2 (3), 1352-1357. http://doi.org/10.1016/j.jece.2014.05.011
Dharmadasa, I., Bingham, P., Echendu, O., Salim, H., Druffel, T., Dharmadasa, R., ... Abbas, A. (2014). Fabrication of CdS/CdTe-Based thin film solar cells using an electrochemical technique. Coatings, 4 (3), 380-415. http://doi.org/10.3390/coatings4030380
Wright, A.C., Clarke, S.J., Howard, C.K., Bingham, P.A., Forder, S.D., Holland, D., ... Fischer, H.E. (2014). The environment of Fe2+/Fe3+ cations in a soda-lime-silica glass. Physics and Chemistry of Glasses: European Journal of Glass Science and Technology Part B, 55 (6), 243-252.
Bosio, A., Gianoncelli, A., Zacco, A., Borgese, L., Rodella, N., Zanotti, D., ... Bontempi, E. (2014). A new nanotechnology of fly ash inertization based on the use of silica gel extracted from rice husk ash and microwave treatment. Proceedings of the Institution of Mechanical Engineers, Part N: Journal of Nanoengineering and Nanosystems, 228 (1), 27-32. http://doi.org/10.1177/1740349913490683
Denis Romero, F., Gianolio, D., Cibin, G., Bingham, P., d’Hollander, J.-.C., Forder, S., & Hayward, M.A. (2013). Topochemical reduction of the Ruddlesden–Popper Phases Sr2Fe0.5Ru0.5O4and Sr3(Fe0.5Ru0.5)2O7. Inorganic Chemistry, 52 (19), 10920-10928. http://doi.org/10.1021/ic400930y
Utton, C.A., Hand, R.J., Bingham, P.A., Hyatt, N.C., Swanton, S.W., & Williams, S.J. (2013). Dissolution of vitrified wastes in a high-pH calcium-rich solution. Journal of Nuclear Materials, 435 (1-3), 112-122. http://doi.org/10.1016/j.jnucmat.2012.12.032
Bingham, P., Hyatt, N.C., & Hand, R.J. (2013). Vitrification of UK intermediate level radioactive wastes arising from site decommissioning. Initial laboratory trials. Glass technology : European Journal of Glass Technology Part A, 54 (1), 1-19.
Bosio, A., Rodella, N., Gianoncelli, A., Zacco, A., Borgese, L., Depero, L.E., ... Bontempi, E. (2013). A new method to inertize incinerator toxic fly ash with silica from rice husk ash. Environmental Chemistry Letters, 11 (4), 329-333. http://doi.org/10.1007/s10311-013-0411-9
Romero, F.D., Bingham, P.A., Forder, S.D., & Hayward, M.A. (2013). Topochemical fluorination of Sr3(M0.5Ru 0.5)2O7 (M = Ti, Mn, Fe), n = 2, Ruddlesden-popper phases. Inorganic Chemistry, 52 (6), 3388-3398. http://doi.org/10.1021/ic400125x
Chen, Y.-.C., Reeves-McLaren, N., Bingham, P., Forder, S., & West, A.R. (2012). Synthesis and characterization of Li11Nd18Fe4O39−δ. Inorganic Chemistry, 51 (15), 8073-8082. http://doi.org/10.1021/ic300296s
Bingham, P., & Barney, E.R. (2012). Structure of iron phosphate glasses modified by alkali and alkaline earth additions: neutron and x-ray diffraction studies. Journal of Physics: Condensed Matter, 24 (17), 175403. http://doi.org/10.1088/0953-8984/24/17/175403
Kalantari, K., Sterianou, I., Sinclair, D.C., Bingham, P., Pokorný, J., & Reaney, I.M. (2012). Structural phase transitions in Ti-doped Bi1-xNdxFeO3 ceramics. Journal of Applied Physics, 111 (6), 064107. http://doi.org/10.1063/1.3697666
Cicek, B., Esposito, L., Tucci, A., Bernardo, E., Boccaccini, A.R., & Bingham, P. (2012). Microporous glass ceramics from combination of silicate, borate and phosphate wastes. Advances in Applied Ceramics, 111 (7), 415-421. http://doi.org/10.1179/1743676112Y.0000000018
Bingham, P., Hyatt, N.C., & Hand, R.J. (2012). Vitrification of UK intermediate level radioactive wastes arising from site decommissioning : property modelling and selection of candidate host glass compositions. Glass technology, 53 (3), 83-100.
Wright, A., Sinclair, R.N., Shaw, J.L., Haworth, R., Marasinghe, G.K., Day, D.E., ... Fischer, H.J. (2012). The atomic and magnetic structure and dynamics of iron phosphate glasses. Physics and Chemistry of Glasses, 53 (6), 227-244.
McGann, O.J., Bingham, P., Hand, R.J., Gandy, A.S., Kavčič, M., Žitnik, M., ... Hyatt, N.C. (2012). The effects of γ-radiation on model vitreous wasteforms intended for the disposal of intermediate and high level radioactive wastes in the United Kingdom. Journal of Nuclear Materials, 429 (1-3), 353-367. http://doi.org/10.1016/j.jnucmat.2012.04.007
Bernardo, E., & Bingham, P. (2011). Sintered silicophosphate glass ceramics from MBM ash and recycled soda-lime-silica glass. Advances in Applied Ceramics, 110 (1), 41-48. http://doi.org/10.1179/174367610X12804792635189
Bingham, P., Connelly, A.J., Hyatt, N.C., & Hand, R.J. (2011). Corrosion of glass contact refractories for the vitrification of radioactive wastes: a review. International Materials Reviews, 56 (4), 226-242. http://doi.org/10.1179/1743280410Y.0000000005
Cassingham, N.J., Stennett, M.C., Bingham, P., Hyatt, N.C., & Aquilanti, G. (2011). The structural role of Zn in nuclear waste glasses. International Journal of Applied Glass Science, 2 (4), 343-353. http://doi.org/10.1111/j.2041-1294.2011.00067.x
Connelly, A.J., Hand, R.J., Bingham, P., & Hyatt, N.C. (2011). Mechanical properties of nuclear waste glasses. Journal of Nuclear Materials, 408 (2), 188-193. http://doi.org/10.1016/j.jnucmat.2010.11.034
Bingham, P., Connelly, A.J., Hand, R.J., Hyatt, N.C., Northrup, P.A., Alonso Mori, R., ... Edge, R. (2010). A multi-spectroscopic investigation of sulphur speciation in silicate glasses and slags. Glass technology, 51 (2), 63-80.
Bingham, P., Connelly, A., Hand, R., & Hyatt, N. (2010). Vitrification of legacy and intermediate level radioactive wastes : opportunities and challenges. Nuclear Future, 6 (6), 250-254. http://www.nuclearfuture.info/ibis/nuclearfuture/home
Bingham, P.A., Connelly, A.J., Hand, R.J., & Hyatt, N.C. (2010). Vitrification of legacy and intermediate level radioactive wastes: Opportunities and challenges. Nuclear Future, 6 (5), 250-254.
Bingham, P., Hand, R.J., Hannant, O.M., Forder, S., & Kilcoyne, S.H. (2009). Effects of modifier additions on the thermal properties, chemical durability, oxidation state and structure of iron phosphate glasses. Journal of Non-Crystalline Solids, 355 (28-30), 1526-1538. http://doi.org/10.1016/j.jnoncrysol.2009.03.008
Bingham, P., & Hand, R.J. (2008). Sulphate incorporation and glass formation in phosphate systems for nuclear and toxic waste immobilization. Materials Research Bulletin, 43 (7), 1679-1693. http://doi.org/10.1016/j.materresbull.2007.07.024
Bingham, P., & Jackson, C.M. (2008). Roman blue-green bottle glass: chemical–optical analysis and high temperature viscosity modelling. Journal of Archaeological Science, 35 (2), 302-309. http://doi.org/10.1016/j.jas.2007.03.011
Volotinen, T.T., Parker, J.M., & Bingham, P. (2008). Concentrations and site partitioning of Fe2+ and Fe3+ ions in a soda-lime-silica glass obtained by optical absorbance spectroscopy. Physics and Chemistry of Glasses, 49 (5), 258-270.
Bingham, P., Yang, G., Hand, R.J., & Möbus, G. (2008). Boron environments and irradiation stability of ironborophosphate glasses analysed by EELS. Solid State Sciences, 10 (9), 1194-1199. http://doi.org/10.1016/j.solidstatesciences.2007.11.024
Bingham, P., Parker, J.M., Searle, T.M., & Smith, I. (2007). Local structure and medium range ordering of tetrahedrally coordinated Fe3+ ions in alkali–alkaline earth–silica glasses. Journal of Non-Crystalline Solids, 353 (24-25), 2479-2494. http://doi.org/10.1016/j.jnoncrysol.2007.03.017
Bingham, P., & Hand, R.J. (2007). Addition of P2O5 to SiO2-Al2O3-B2O3-MgO-CaO-Na2O glass : a study of its effects on glass properties, structure and melting behaviour. Glass technology, 48 (2), 78-88.
Bingham, P.A., & Hand, R.J. (2007). Addition of P2O5 to SiO2-Al 2O3-B2O3-MgO-CaO-Na2O glass: A study of its effects on glass properties, structure and melting behaviour. Glass Technology: European Journal of Glass Science and Technology Part A, 48 (2), 78-88.
Bingham, P., & Hand, R.J. (2006). Vitrification of toxic wastes : a brief review. Advances in Applied Ceramics: Structural, Functional and Bioceramics Journal - Advances in Psychiatric Treatment, 105 (1), 21-31.
Bingham, P., Hand, R.J., Forder, S.D., Lavaysierre, A., Kilcoyne, S.H., & Yasin, I. (2006). Preliminary studies of sulphate solubility and redox in 60P2O5–40Fe2O3 glasses. Materials Letters, 60 (6), 844-847. http://doi.org/10.1016/j.matlet.2005.10.029
Bingham, P., Hand, R.J., & Forder, S.D. (2006). Doping of iron phosphate glasses with Al2O3, SiO2 or B2O3 for improved thermal stability. Materials Research Bulletin, 41 (9), 1622-1630. http://doi.org/10.1016/j.materresbull.2006.02.029
Bingham, P., Hand, R.J., Forder, S.D., & Lavaysierre, A. (2005). Vitrified metal finishing wastes II. Thermal and structural characterisation. Journal of Hazardous Materials, 122 (1-2), 129-138. http://doi.org/10.1016/j.jhazmat.2005.03.031
Bingham, P., & Hand, R. (2005). Vitrified metal finishing wastes I. Composition, density and chemical durability. Journal of Hazardous Materials, 119 (1-3), 125-133. http://doi.org/10.1016/j.jhazmat.2004.11.014
Bingham, P., & Marshall, M. (2005). Reformulation of container glasses for environmental benefit through lower melting temperatures. Glass technology, 46 (1), 11-19.
Bingham, P. (2004). The effects of 1 wt % P2O5 addition on the properties of container glass. Glass technology, 45 (6), 255-258.
Bingham, P. (2003). Container glass formulation : a fresh look at an old problem. Glass, 80, 336.
Bingham, P., Parker, J.M., Searle, T., Williams, J.M., & Smith, I. (2003). Novel structural behaviour of iron in alkali–alkaline-earth–silica glasses. Comptes Rendus Chimie, 5 (11), 787-796. http://doi.org/10.1016/S1631-0748(02)01444-3
Wilding, M., Phillips, B., Wilson, M., Sharma, G., Navrotsky, A., Bingham, P., ... Parise, J. (n.d.). The structure and thermochemistry of K2CO3-MgCO3 glass. Journal of Materials Research.
Yambissa, M., Forder, S., & Bingham, P. (2016). 57Fe Mossbauer spectroscopy used to developunderstanding of a diamond preservation index model. Hyperfine Interactions, 237 (66), 1-6. http://doi.org/10.1007/s10751-016-1262-0
Singh, J., Bingham, P., Penders, J., & Manby, D. (2016). Effects of residual charge on the performance of electro-adhesive grippers. In Alboul, L., Damian, D., & Aitkens, J.M. (Eds.) Towards autonomous robotic systems. TAROS 2016, Sheffield, UK, June 26--July 1, 2016, Proceedings, (pp. 327-338). Springer International Publishing: http://doi.org/10.1007/978-3-319-40379-3_34
Fletcher-Wood, R.L., Gorin, C., Forder, S., Bingham, P., & Hriljac, J.A. (2014). Mössbauer spectroscopy for optimising systems for environmental remediation. Hyperfine Interactions, 226 (1-3), 499-508. http://doi.org/10.1007/s10751-013-0968-5
Wright, A.C., Clarke, S.J., Howard, C.K., Bingham, P., Forder, S., Holland, D., ... Fischer, H.E. (2014). The environment of Fe2+/Fe3+ cations in a soda–lime–silica glass. Physics and Chemistry of Glasses : European Journal of Glass Science and Technology Part B, 55 (6), 243-252. http://www.ingentaconnect.com/content/sgt/pcg/2014/00000055/00000006/art00003
McGann, O.J., Gandy, A.S., Bingham, P.A., Hand, R.J., & Hyatt, N.C. (2013). The effect of γ-radiation on mechanical properties of model UK nuclear waste glasses. Materials Research Society Symposium Proceedings, 1518, 41-46. http://doi.org/10.1557/opl.2013.203
McGann, O.J., Bingham, P.A., & Hyatt, N.C. (2013). Systematic development of alkaline-earth borosilicate glasses for caesium loaded ion exchange resin vitrification. Ceramic Transactions, 241, 69-80.
Forder, S., Bingham, P., McGann, O., Stennett, M., & Hyatt, N.C. (2013). Mossbauer studies of materials used to immobilise waste. Hyperfine Interactions, 217 (1-3), 83-90. http://doi.org/10.1007/s10751-012-0700-x
Bingham, P., Connelly, A.J., Cassingham, N.J., & Hyatt, N.C. (2011). Oxidation state and local environment of selenium in alkali borosilicate glasses for radioactive waste immobilisation. Journal of Non-Crystalline Solids, 357 (14), 2726-2734. http://doi.org/10.1016/j.jnoncrysol.2010.12.053
Forder, S.D., Hannant, O.M., Bingham, P., & Hand, R.J. (2010). Concerning the use of standards for identifying coordination environments in glasses. Journal of Physics : Conference Series, 217, 012072. http://doi.org/10.1088/1742-6596/217/1/012072
Cassingham, N.J., Stennett, M.C., Bingham, P., Aquilanti, G., & Hyatt, N.C. (2010). The role of Zn in model nuclear waste glasses studied by XAS. In Diamond '10 Conference - Decommissioning, Immobilisation and Management of, Manchester, UK, 2010 - 2010. http://www.diamondconsortium.org/main_pubs/2010/File%2030%20-%20332%20Nate%20Cassingham.pdf
Hannant, O.M., Forder, S.D., Bingham, P.A., & Hand, R.J. (2009). Structural studies of iron in vitrified toxic wastes. ISIAME 2008, 539-+. http://doi.org/10.1007/978-3-642-01369-0_71
Schofield, J.M., Bingham, P., & Hand., R.J. (2009). The immobilisation of a chloride containing actinide waste surrogate in calcium aluminosilicate glasses. In Cozzi, A., & Ohji, T. (Eds.) Environmental Issues and Waste Management Technologies in the Materials and Nuclear Industries XII, (pp. 69-80). Wiley: http://doi.org/10.1002/9780470538371.ch8
Bingham, P., Connelly, A.J., Hand, R.J., Hyatt, N.C., & Northup, P.A. (2009). Incorporation and speciation of sulphur in glasses for waste immobilisation. Glass technology, 50 (3), 135-138.
Hannant, O.M., Forder, S., Bingham, P., & Hand, R.J. (2009). Structural studies of iron in vitrified toxic wastes. Hyperfine Interactions, 192 (1-3), 37-42. http://doi.org/10.1007/s10751-009-9944-5
Yang, G., Mobus, G., Bingham, P., & Hand, R.J. (2009). Electron beam induced structure changes in borosilicate and borophosphate glasses: a comparison by energy loss spectroscopy. Physics and Chemistry of Glasses, 50 (6), 378-383.
Cassingham, N.J., Bingham, P., Hand, R.J., & Forder, S. (2008). Property modification of a high level nuclear waste borosilicate glass through the addition of Fe2O3. Glass technology, 49 (1), 21-26. http://www.societyofglasstechnology.org.uk/cgi-bin/open.cgi?page=journal&sessionid=85597106
Schofield, J.M., Bingham, P., & Hand, R.J. (2008). Waste loading of actinide chloride surrogates in an iron phosphate glass. MRS Proceedings, 1107, 253-260. http://doi.org/10.1557/PROC-1107-253
Bingham, P., Hand, R.J., Stennett, M.C., Hyatt, N.C., & Harrison, M.T. (2008). The use of surrogates in waste immobilization studies : a case study of plutonium. MRS Proceedings, 1107, 421-428. http://doi.org/10.1557/PROC-1107-421
Bingham, P., Hyatt, N.C., Hand, R.J., & Wilding, C.R. (2008). Glass development for vitrification of Wet Intermediate Level Waste (WILW) from decommissionning of the Hinkley Point ‘A’ Site. MRS Proceedings, 1124. http://doi.org/10.1557/PROC-1124-Q03-07
Möbus, G., Tsai, J., Xu, X.J., Bingham, P., & Yang, G. (2008). Nanobead formation and nanopatterning in glasses. Microscopy and Microanalysis, 14 (S2), 434-435. http://doi.org/10.1017/S1431927608085292
Hannant, O.M., Bingham, P., Hand, R.J., & Forder, S. (2008). The structural properties of vitrified toxic waste ashes. Glass technology, 49 (1), 27-32.
Bingham, P., Connelly, A.J., Hand, R.J., Hyatt, N.C., & Northrup, P.A. (2007). Solubility and speciation of sulphur in glasses for waste immobilization. MRS Proceedings.
Bingham, P., & Hand, R.J. (2007). Recycling of incinerator ashes : potential energy-saving raw materials for the manufactureof glasses and ceramics or simply low-grade aggregate materials? In Freiman, S. (Ed.) Proceedings of the 1st International Congress on Ceramics: A Global Roadmap. Wiley
Bingham, P., Hand, R.J., & Scales, C.R. (2006). Immobilisation of simulated plutonium-contaminated material in phosphate glass : an initial scoping study. MRS Proceedings, 932. http://doi.org/10.1557/PROC-932-89.1
Bingham, P., Hand, R.J., Forder, S.D., Lavaysierre, A., Deloffre, F., Kilcoyne, S.H., & Yasin, I. (2006). Structure and properties of iron borophosphate glasses. Physics and Chemistry of Glasses, 47 (4), 313-317.
Harrison, M., Scales, C.R., Bingham, P., & Hand, R.J. (2006). Survey of potential glass compositions for the immobilisation of the UK's separated plutonium stocks. MRS Proceedings, 985. http://doi.org/10.1557/PROC-985-0985-NN04-03
Bingham, P., Forder, S.D., Hand, R.J., & Lavaysierre, A. (2005). Mössbauer studies of phosphate glasses for the immobilisation of toxic and nuclear wastes. Hyperfine Interactions, 165 (1-4), 135-140. http://doi.org/10.1007/s10751-006-9256-y
Bingham, P., Parker, J.M., Searle, T., Williams, J.M., & Smith, I. (2001). Novel structural behaviour of iron in alkali-alkaline earth-silica glasses. In Proceedings of the XIX International Congress on Glass, Edinburgh, July 2001. Society of Glass Technology
Bingham, P., Parker, J.M., Searle, T., Williams, J.M., & Fyles, K. (1999). Redox and clustering of iron in silicate glasses. Journal of Non-Crystalline Solids, 253 (1-3), 203-209. http://doi.org/10.1016/S0022-3093(99)00361-0
Bingham, P., Parker, J.M., Searle, T., Williams, J.M., & Fyles, K. (1998). Redox and clustering of iron in silicate glasses. In Proceedings of the XVIII International Congress on Glass, San Francisco, July 1998. Society of Glass Technology
Bingham, P. (2009). Design of new energy-friendly compositions. In Wallenberger, F.T., & Bingham, P. (Eds.) Fiberglass and glass technology : energy-friendly compositions and application. (pp. 267-354). Springer
Bingham, P. (2009). Design of new energy-friendly compositions. In Wallenberger, F.T., & Bingham, P. (Eds.) Fiberglass and glass technology : energy-friendly compositions and application. (pp. 267-354). Springer
Wallenberger, F.T., & Bingham, P. (2009). Fiberglass and glass technology : energy-friendly compositions and applications. Springer.
Theses / Dissertations
Scrimshire, A. (2019). Investigations of catalyst and energy storage materials using 57Fe Mössbauer spectroscopy. (Doctoral thesis). Supervised by Bingham, P. http://doi.org/10.7190/shu-thesis-00194
Allsopp, B.L. (2019). Effects of d0 and s2 cations on optical properties of silicate glasses. (Doctoral thesis). Supervised by Bingham, P. http://doi.org/10.7190/shu-thesis-00177
Vaishnav, S. (2018). Structural characterization of sulphate and chloride doped glasses for radioactive waste immobilisation. (Doctoral thesis). Supervised by Bingham, P. http://doi.org/10.7190/shu-thesis-00114
Yambissa, M.T. (2017). Mantle conditions and kimberlite geochemical criteria controlling diamond survival in Kimberlites. (Doctoral thesis). Supervised by Bingham, P.
- External PhD examiner (UK and international);
- Fellow of the Society of Glass Technology;
- Member of Society of Glass Technology Board of Fellows and Basic Science and Technology Committee;
- Member of International Commission on Glass Technical Committee 5: Waste Vitrification;
- Member of the RAL-ISIS UK Neutron User Committee;
- Member of the UK Ceramics Sector 2050 Decarbonisation Roadmap Committee;
- Chair of the Local Organising Committee, Centenary Conference of the Society of Glass Technology, 2016;
- Academic advisor to the British Glass Futures initiative;
- Peer reviewer for the U.S. Department of Energy Nuclear Energy Universities Program;
- International expert peer reviewer for EU FP7 and H2020 proposals;
- Regular reviewer for over 10 international journals.
Current PhD Students:
- BIGHARAZ, Masoud. Development and analysis of new ceramic materials for electroadhesive applications.
- EALES, James. Understanding composition-structure-property-phase relations in high-Fe2O3 radioactive waste glasses for the Hanford site.
- LOVE, Katrina. Phosphate solubility and impacts on properties of radioactive waste glasses for the Hanford site.
- MODARRESIFAR, Farid. Structure-viscosity relations in silicate and aluminosilicate glasses.
- RAUTIYAL, Prince. Understanding the structure, properties and performance of glasses for radioactive waste immobilisation using advanced spectroscopic techniques.
- RIGBY, Jessica. Understanding cold cap - glass melt migration in radioactive waste glass melting for the Hanford site.
- WIE-ADDO, Gloria. Reducing energy demand and CO2 emissions from industrial ceramic manufacture.
Past PhD Students:
- MUHAMMED, Khalid. Development of novel processing routes for electrical ceramic production.
- SCRIMSHIRE, Alex. Advanced spectroscopy of ceramic materials for catalysis.
- ALLSOPP, Ben. Development of novel glass dopants for enhanced solar efficiency glazing.
- VAISHNAV, Shuchi. Understanding the structural effects and solubility behaviour of sulphur in radioactive waste glasses.
- CHRISTOPOULOU, Georgia. Understanding the in-service behaviour of high-temperature thermal insulation materials.
- YAMBISSA, Mubuabua. Understanding diamond preservation conditions in Angolan kimberlites using advanced spectroscopic techniques.
- Hallam PhD students driving improvements in nuclear waste disposal, 18thDecember 2018.
- Your cracked phone screen may soon be able to repair itself…”, article and interview on self-healing materials, The Yorkshire Post, 11th January 2018, p. 15.
- Interview on self-healing materials, Howard Pressman’s DriveTime Show, BBC Radio Sheffield, 11thJanuary 2018.