The Ph.D. thesis concerns the solar resource estimate in Solar Tower Power Plants (STPPs) . In STPPs, a heliostat field focuses the solar radiation on a receiver located at the top of a tower. Before reaching and after reflected by the heliostats, the solar radiation interacts with the atmosphere and with the ground surface. The atmosphere is composed of molecules which scatter the solar radiation, with particles in suspension called aerosols, which present highly variable optical properties.
The Ph.D. thesis has analysed all the interactions between, on one hand, the solar radiation and, on the other hand, the atmosphere, the ground surface and any objects to provide the best estimate of the solar resource in a STPP. Figure 1 shows that the atmosphere can be responsible of production loss (see the ASoRA project). The Figure also shows that not only heliostats direct the solar radiation to the receiver, but also the atmosphere and the ground surface. For this work, the SMART-G code has been adapted to compute not only the radiative transfer in the atmosphere but also the impact of a heliostat field, and to integrate all solar radiation reaching a receiver. The PhD was defended in March 2021.
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