Research

Our main research activities include;

  • Novel solar cell material development
  • Semiconductor coatings
  • Thin-film photovoltaics (PV)
  • Physical, chemical and electrical characterisation
  • Sensor design and development
  • Innovative high volume/in-line processing techniques

Current Research Projects

Solar Photovoltaic Academic Research Consortium (SPARC) IIERDF (002)

The funding (£7.2m) for SPARC II (Solar Photovoltaic Research Consortium) has been approved by the Welsh European Funding Office (WEFO) and provides underpinning funding for a collaboration of 6 research teams across the Universities of Swansea, Aberystwyth and Bangor. The purpose of this research funding is to build research capacity in solar photovoltaic research, to ensure that the SPARC II team can attract substantial competitive research funding that will enable new research partnerships for ground breaking research and lead to effective technology transfer in the future.

The SPARC II team cover a range of key expertise from power electronics through to synthesis of PV materials, devices and their characterisation. This is an exciting opportunity to build on past successes of inorganic thin film PV, Dye-sensitised Solar Cells (DSSC) and Perovskites. The SPARC I consortium has been expanded with the addition of Aberystwyth University Physics Department that brings a unique capability to make in situ measurements of fundamental film properties that will lead to more efficient and more robust solar cells.

For further information on this project, please contact Dr. Dan Lamb – d.a.lamb@swansea.ac.uk

Optical Transfer of Heat with Electrical and Light Output (OTHELLO)

The proposal’s primary goal is to conduct the research to prove the viability of concentrating the Infra-Red (IR) frequencies that can be captured through thin film Cadmium Telluride (CdTe) solar panels, allowing industry to establish a route to market for combined PV and solar thermal (PVT) panels that co-generate electricity and high temperature heat. This development of an electrically and thermally efficient high temperature static PVT system will rapidly, at scale, address the energy trilemma.

>The primary objective is to use thin film CdTe’s outstanding ability to both efficiently and cost-effectively convert the shorter solar wavelengths to electricity, while leaving, as far as possible, longer wavelengths available to generate high temperatures through concentration.

>The secondary objective is to consider how modules could be configured to reduce manufacturing costs to facilitate rapid global rollout.

>The third objective is to consider to what extent the research would be applicable to Perovskite which has the potential to be efficient at similar wavelengths and with even lower costs.

For further information on this project, please contact Dr. Dan Lamb – d.a.lamb@swansea.ac.uk