Oxford U. Researchers Win Prize With Solar Coatings
Develop a hi-tech coating with the potential to significantly reduce the manufacturing costs of new-generation solar photovoltaic cells.
(L-R) Dr Vladimir Kuznetsov, Seni Group, Professor Peter Edwards and Dr Jamie Ferguson at Oxford’s Department of Chemistry.
Researchers at the University of Oxford have won a major materials science prize to develop a high-technology coating with the potential to significantly reduce the manufacturing costs of new-generation solar photovoltaic cells.
Professor Peter Edwards, Head of Inorganic Chemistry at The University of Oxford and Fellow of St Catherine’s College, Oxford, will use the £25,000 Materials Science Venture Prize, awarded by the Worshipful Company of Armourers and Brasiers, to develop manufacturing processes for his group’s transparent conducting oxide coatings.
The global market for solar photovoltaic cells was worth US$28 billion in 2009.
Currently, Indium tin oxide (ITO) is used by over 97 per cent of the transparent conducting oxide market as it possesses a near-ideal combination of high visible-light transparency and high electrical conductivity. However, indium metal is relatively scarce, expensive and has a highly volatile price. China produces over half of the world’s indium and has recently significantly reduced its export quotas. The total market for ITOs is estimated to be worth US$26.8 billion by 2016.
The new coatings were developed as part of a program to investigate low-cost, earth abundant materials and inexpensive deposition routes which could be used for large-area transparent conducting oxide coatings for products such as solar photovoltaic cells. These coatings are based on silicon-doped zinc oxide and provide a much-needed alternative to indium tin oxide.
Professor Edwards said: “Zinc is a much more abundant material than indium, and our silicon-doped zinc oxide material offers electrical conductivities around two thirds of ITO, with comparable optical transparency. In addition to solar cells, our new coating could be used with lighting displays and LCD displays used in smart phones, computers and televisions.”
“This new coating could seriously reduce costs for manufacturers and consumers in a very exciting and growing industry, said Professor Bill Bonfield, chairman of the Armourers & Brasiers Venture Prize judging panel. “Our aim is to encourage innovative scientific entrepreneurship and help providing funding, which is often very difficult to source, to help bring new materials science research like this to market.”
Related Content
-
Ultrafiltration Membranes, Filter Elements for Improved Industrial Water Reuse
Ultrafiltration membranes help with water reuse in a variety of applications.
-
Top 5 Areas to Consider Automation of Plating Operations
Automation for finishing operations can lead to improvements in process time, repeatability and consistency of quality. Yet, processes that make sense to explore for these operational efficiencies may not always be readily apparent.
-
NASF/AESF Foundation Research Project #122: Electrochemical Approaches to Treatment of PFAS in Plating Wastewater - 12th Quarterly Report
This NASF-AESF Foundation research project report covers the 12th quarter of project work (October – December 2023) at the University of Georgia. In our previous report, we described our work on performance and effect of surface fluorinated Ti4O7 anodes on PFAS degradation in reactive electrochemical membrane (REM) mode. This quarter, our experiments involved utilizing porous Ti4O7 plates serving both as anodes and membranes. Tests compared pristine and F-18.6 Ti4O7 anodes at current densities of 10 mA/cm2 and 40 mA/cm2. This 12th quarterly report discusses the mechanisms of the effects on EO performance by anode surface fluorination.