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Effect of climate on electrical performance of finned phase change material integrated solar photovoltaic

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posted on 2025-07-31, 23:20 authored by S Khanna, KS Reddy, TK Mallick
Photovoltaic (PV) cells absorb the incident solar radiation while operation of which, majority part causes heating leading to the hampered electrical efficiency. PVs can be integrated with phase change material (PCM) to maintain cell temperature within desired limits and the effect can be improved by deploying fins. The current work aims at analysing the effect of climate on the electrical performance of finned PCM integrated PV. Modelling of system has been done which has been validated using experimental results. For the study, fins with various spacings, thicknesses and lengths are used. The main conclusions of the study are, (a) for less alterative climate, the improvement in the PV electrical output (using finned PCM) is 9.7%, 10.8%, 11.3%, 11.6% and 11.6% respectively for a spacing of 1 m, 1/2 m, 1/3 m, 1/4 m and 1/5 m. For highly alterative climate, the respective values reduce to 6.6%, 7.6%, 8.1%, 8.4% and 8.4%, (b) for warmer climate, the output increases by 10.1%, 11.3%, 11.8%, 12.1% and 12.1% while for colder climate, it increases only by 5.4%, 6.1%, 6.5%, 6.7% and 6.7%, (c) for windy climate, the power increments are significantly lesser as compared to the other case, (d) climate having higher wind azimuth results in better performance of finned PCM, and (e) for clear sky climate, performance of finned PCM is better.

Funding

EP/K03619X/1

Engineering and Physical Sciences Research Council (EPSRC)

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© 2018 The Authors. Published by Elsevier Ltd. This is an open access article under the CC BY license (http://creativecommons.org/licenses/BY/4.0/)

Notes

This is the final version. Available on open access from Elsevier via the DOI in this record In support of open access research, all underlying article materials (such as data, samples or models) can be accessed upon request via email to the corresponding author.

Journal

Solar Energy

Publisher

Elsevier for International Solar Energy Society

Version

  • Version of Record

Language

en

FCD date

2019-01-14T10:45:55Z

FOA date

2019-01-14T10:48:04Z

Citation

Vol. 174, pp. 593 - 605

Department

  • Engineering

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