Development of a Light-Trapping, Planar-Cavity Receiver for Enclosed Solar Particle Heating

Research output: NRELPresentation

Abstract

Concentrating solar thermal power (CSP) technology development has recently focused on high efficiency power cycles and chemical reactions that require high operating temperatures. An increase in receiver operating temperatures relative to current commercial CSP technology is necessary to support more efficient, high temperature power cycles or thermochemical processes. Solar receivers operating with heat transfer media temperatures >700 degrees C face various challenges including thermal performance, scalability, thermal-mechanical issues, and receiver service life. In addition, heat transfer media selection for high-temperature processes has been moving towards inert solid particles in Gen3 CSP, and reactive solid media and/or gases in solar thermochemical processes. To overcome the shortcomings and limitations of conventional designs for molten salt or particle receivers and receiver reactors, we introduce a unique light-trapping, planar cavity receiver (LTPCR) configuration and will present the current development progresses to demonstrate receiver feasibility through modeling, testing, and prototype demonstration.
Original languageAmerican English
Number of pages17
StatePublished - 2024

Publication series

NamePresented at ASME 2024 18th International Conference on Energy Sustainability, 15-17 July 2024, Anaheim, California

NREL Publication Number

  • NREL/PR-5700-90501

Keywords

  • heating
  • particle
  • solar receiver
  • thermal

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