Upscaling and Testing of Air-Based Rotary Solar Thermal Receivers for Concentrated Solar Power Applications

Authors

  • Pok-Wang Kwan Odqa Renewable Energy Technologies Limited https://orcid.org/0000-0003-4547-9900
  • Mark Loasby Odqa Renewable Energy Technologies Limited
  • Augustin Wambarsie Odqa Renewable Energy Technologies Limited
  • Chiang Churchill Ngai Odqa Renewable Energy Technologies Limited
  • Peter T. Ireland Odqa Renewable Energy Technologies Limited
  • Joe Baddeley Odqa Renewable Energy Technologies Limited
  • Katarina Marčeta Odqa Renewable Energy Technologies Limited
  • Orla Mallon Odqa Renewable Energy Technologies Limited
  • Asli Kaya Odqa Renewable Energy Technologies Limited
  • Dave Mountain Odqa Renewable Energy Technologies Limited
  • Scott Battams Odqa Renewable Energy Technologies Limited
  • Ashley Cooper Odqa Renewable Energy Technologies Limited
  • MyeongGeun Choi Odqa Renewable Energy Technologies Limited
  • George Wilson Odqa Renewable Energy Technologies Limited
  • Kirk Ashley-Morgan Odqa Renewable Energy Technologies Limited
  • Gediz Karaca Odqa Renewable Energy Technologies Limited

DOI:

https://doi.org/10.52825/solarpaces.v3i.2357

Keywords:

Rotary Receiver, Solar Thermal Receiver, High Temperature Air, Concentrated Solar Power

Abstract

Odqa Renewable Energy Technologies Ltd has successfully scaled its air-based rotary solar thermal receiver design from 10kW to 100kW.  A 10kW-scale air-based rotary solar thermal receiver was tested in Odqa’s in-house solar simulator facility in late-2022.  Learning from the experience, an improved solar thermal receiver rotor geometry has been developed and built, its mechanical design has been proven in a heliostat field test carried out at PROTEAS, The Cyprus Institute.  A Predictive Engineering Analytics approach has been developed to predict the thermal performance and for the purpose of upscaling of the solar thermal receiver.  As a result, the thermal design for a 100kW-scale solar thermal receiver has been produced, which subsequently was built at Odqa and tested at the SynLight solar simulator facility at the Institute of Solar Research, German Aerospace Center (DLR).

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References

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Published

2025-10-22

How to Cite

Kwan, P.-W., Loasby, M., Wambarsie, A., Ngai, C. C., Ireland, P. T., Baddeley, J., … Karaca, G. (2025). Upscaling and Testing of Air-Based Rotary Solar Thermal Receivers for Concentrated Solar Power Applications. SolarPACES Conference Proceedings, 3. https://doi.org/10.52825/solarpaces.v3i.2357
Received 2024-09-06
Accepted 2025-05-07
Published 2025-10-22