Title :
Heat transfer model of a trough compound parabolic reflector used in a linear Fresnel solar field
Author :
Ajdad, Hamid ; Boutammachte, Noureddine ; Al Mers, Ahmed ; Bouatem, Abdelfattah ; Merroun, Ossama
Author_Institution :
Dept. of Energy, Ecole Nat. Super. d´Arts et Metiers, Meknès, Morocco
Abstract :
This work falls within the framework of CHAMS I project funded by IRESEN (Research Institute for Solar Energy and New Energy). Its principal objective is to develop a low cost solar field based on a new generation of Fresnel collectors. To attempt this goal, we have developed a code package for scientific computing in order to help in design of the desired solar field. This numerical tool is able to simulate the optical behavior of a Fresnel solar field as well as the quantification of heat loses of the system. In this paper, a focus is given on modeling heat transfer phenomena occurring inside a trough-Compound Parabolic Collector (CPC). For checking numerical errors and the accuracy of the code results, a set of verification tests were performed. It concerns the application of the method of manufactured solutions and code-to-code verification processes. The results obtained show that our model predicts with good accuracy the thermal performances of the receiver.
Keywords :
Fresnel diffraction; heat transfer; optical elements; solar power stations; CHAMS I project; Fresnel collector generation; IRESEN; Research Institute for Solar Energy and New Energy; code package; code-to-code verification process; heat transfer; linear Fresnel solar field; scientific computing; thermal performances; trough compound parabolic reflector; Accuracy; Adaptive optics; Electron tubes; Heating; Integrated optics; Materials; Software; Heat and Mass transfer; Linear Fresnel CSP technology; Monte Carlo-Ray; Solar energy; tubular collector;
Conference_Titel :
Renewable and Sustainable Energy Conference (IRSEC), 2014 International
Print_ISBN :
978-1-4799-7335-4
DOI :
10.1109/IRSEC.2014.7059858