Numerical simulation of dust deposition on rooftop of photovoltaic parking lots supporting electric vehicles charging

Research output: Contribution to journalArticleResearchpeer review

Authors

  • Mohsen Abdolahzadeh
  • Nima Parsa Mofrad
  • Ali Tayebi

Research Organisations

External Research Organisations

  • Justus Liebig University Giessen
  • Yasouj University
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Details

Original languageEnglish
Article number105444
JournalJournal of Wind Engineering and Industrial Aerodynamics
Volume239
Early online date20 May 2023
Publication statusPublished - Aug 2023

Abstract

Dust deposition on Photovoltaic (PV) surfaces reduces the amount of radiation received by the solar cell, which decreases the energy output of solar PV systems. In this study, the process of dust deposition on three different photovoltaic parking lot structures, including a mono-pitch canopy, a duo-pitch canopy, and a barrel-arch canopy is numerically investigated for the first time. The results show that a slight variation of the tilt angle has no significant effect on the dust deposition behavior. However, the size of the dust particles has a strong influence on the amount of dust deposition. The tendency for dust deposition is found to increase first for small-sized particles and then to decrease with increasing particle diameter. Duo-pitch electric vehicles parking lots (EVsPLs) provide better performance against dust deposition compared to the other EVsPLs for most particle diameters. Mono-pitch EVsPLs, however, are more effective than the others at lower Reynolds number, Re=143,000, and small-sized particles for dp≤10 μm. In addition, medium-sized particles, 50<dp<200 μm, are found to be more prone to deposit on PV surfaces. The main novelty of the present study is that it offers a new perspective on the selection of the best structure of parking lots depending on environmental conditions, especially in areas with high dust concentration.

Keywords

    Dust deposition, Electric vehicle, Numerical simulation, Rooftop photovoltaic parking lot

ASJC Scopus subject areas

Sustainable Development Goals

Cite this

Numerical simulation of dust deposition on rooftop of photovoltaic parking lots supporting electric vehicles charging. / Abdolahzadeh, Mohsen; Parsa Mofrad, Nima; Tayebi, Ali.
In: Journal of Wind Engineering and Industrial Aerodynamics, Vol. 239, 105444, 08.2023.

Research output: Contribution to journalArticleResearchpeer review

Abdolahzadeh M, Parsa Mofrad N, Tayebi A. Numerical simulation of dust deposition on rooftop of photovoltaic parking lots supporting electric vehicles charging. Journal of Wind Engineering and Industrial Aerodynamics. 2023 Aug;239:105444. Epub 2023 May 20. doi: 10.1016/j.jweia.2023.105444
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abstract = "Dust deposition on Photovoltaic (PV) surfaces reduces the amount of radiation received by the solar cell, which decreases the energy output of solar PV systems. In this study, the process of dust deposition on three different photovoltaic parking lot structures, including a mono-pitch canopy, a duo-pitch canopy, and a barrel-arch canopy is numerically investigated for the first time. The results show that a slight variation of the tilt angle has no significant effect on the dust deposition behavior. However, the size of the dust particles has a strong influence on the amount of dust deposition. The tendency for dust deposition is found to increase first for small-sized particles and then to decrease with increasing particle diameter. Duo-pitch electric vehicles parking lots (EVsPLs) provide better performance against dust deposition compared to the other EVsPLs for most particle diameters. Mono-pitch EVsPLs, however, are more effective than the others at lower Reynolds number, Re=143,000, and small-sized particles for dp≤10 μm. In addition, medium-sized particles, 50p<200 μm, are found to be more prone to deposit on PV surfaces. The main novelty of the present study is that it offers a new perspective on the selection of the best structure of parking lots depending on environmental conditions, especially in areas with high dust concentration.",
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AU - Abdolahzadeh, Mohsen

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AU - Tayebi, Ali

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