Teaser text

High concentration solar furnaces involve efficient interconversion of energy from sunlight to produce electricity, heat and fuel. Each form of energy has storage challenges; e.g. spectrum-splitting photovoltaics produce electrical power, hybrid PVā€“thermal systems produce electricity and heat, while ultra-high solar concentration furnaces can be used to manufacture solar fuels.

Body Text

Competitive advantage

  • Development of novel optical systems applied to industrial-scale solar concentrators opens up new possibilities for high temperature solar furnaces. Integration of fluid lens optics and optic fibre provides a versatile platform for deployment of new high temperature reactors, as well as retro-fitting to existing systems.

Impact

  • Enabling a range of high-temperature thermochemical cycles that may be used for the production of renewable solar fuels
  • Extraction of metals from their ores using solar energy could position Australia as an exporter of clean and high value raw materials

Successful outcomes

  • High efficiency photovoltaic devices
  • High concentration solar cell architectures
  • Development of new modelling tools for solar concentrators
  • Design integration with concentrating solar power technology for deployment at scale

Capabilities and facilities

  • 3D freeform optical surface growth for optimal non-symmetric optical concentrators
  • Heliostat field integration and solar receiver optimisation
  • Spectrum-splitting optics and high-efficiency photovoltaics
  • Concentrating solar receiver design
  • Thermodynamics of the interconversion of heat, electricity and light
  • Characterisation of optical materials

Our partners

  • Heliosystems Pty Limited
  • Peritar Pty Limited
  • Raygen Resources Pty Limited