Thermal Model of a Solar Thermochemical Reactor for Metal Oxide Reduction
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Wang, Bo
Li, Lifeng
Pottas, Johannes
Bader, Roman
Kreider, Peter
Wheeler, Vincent
Lipinski, Wojciech
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ASME International
Abstract
A transient heat transfer model is developed to study the thermal performance of a high-temperature solar thermochemical reactor for metal oxide reduction. The solar reactor consists of an indirectly irradiated tubular fluidized bed contained in a solar cavity receiver. Radiative heat transfer in the cavity, modeled with the Monte Carlo ray-tracing method, is coupled to conduction in the tube and cavity walls. Incident radiation distributions from a diffuse radiative source and a high-flux solar simulator are implemented separately in the model to study the influence of incident radiation directionality on the performance of the reactor. Maximum temperature, maximum thermal stress, start-up time, energy balance, and particle reduction rate for the proposed reactor concept are calculated to inform the design and optimization of a prototype reactor.
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Journal of Solar Energy Engineering
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2099-12-31
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