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Performance Characterization of a Solar Cavity Collector Using Artificial Neural Network
Author(s) -
B. Lakshmipathy,
K. Sivakumar,
M. Senthilkumar,
A. Kajavali,
S. Christopher Ezhil Singh,
Sivaraj Murugan
Publication year - 2022
Publication title -
modelling and simulation in engineering
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.264
H-Index - 20
eISSN - 1687-5591
pISSN - 1687-5605
DOI - 10.1155/2022/7129833
Subject(s) - artificial neural network , thermal , enclosure , tilt (camera) , aperture (computer memory) , solar energy , inlet , mass flow rate , working fluid , computational fluid dynamics , flow (mathematics) , mechanical engineering , simulation , volumetric flow rate , solar thermal collector , mass flow , engineering , mechanics , computer science , artificial intelligence , electrical engineering , meteorology , aerospace engineering , physics
It is mandatory to improve the design of the flat plate collector (FPC) used for solar thermal applications to perform well. One way to improve the performance characteristics of FPC is to retain the heat energy available inside the collector. That is, a collector should be capable to give more heat energy to working fluid for a longer duration. It has been implemented in such a way in an entertained and improved model which is known as solar cavity collector (SCC). It consists of 5 numbers of cavities equipped with inlet and outlet tubes. The same having with an enclosure has been constructed and investigated to find the optimal performance. In general, the physical dimensions of the collector influence more the functioning behaviors of SCC. The performance variables that are considered for the present study are the comparison between 5 and 7 numbers of cavities and the effect of aperture entry. Collector angle of tilt, two types of flow mode, and water mass flow rates are the other performance variables that are also considered. The data from the experimentations are trained, tested, and validated with the help of the artificial neural network (ANN). The accuracy of the model is 96%, and the end results revealed the same trend followed by both experimental and ANN simulation results. Also, the variations that occur between ANN and experimented results are ±4%.

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