Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance

The co-location of offshore wind and floating solar farms is an attractive hybrid option that optimizes the areal power density for the renewable power production. However, an important consideration remains whether the strong waves expected in the high-wind environment would cause large displacemen...

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Main Authors: Bi, Cheng, Law, Adrian Wing-Keung
Other Authors: School of Civil and Environmental Engineering
Format: Article
Language:English
Published: 2023
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Online Access:https://hdl.handle.net/10356/164309
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-1643092023-01-21T23:33:23Z Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance Bi, Cheng Law, Adrian Wing-Keung School of Civil and Environmental Engineering Nanyang Environment and Water Research Institute Environmental Process Modelling Centre Engineering::Environmental engineering Floating Solar Farm Power Output The co-location of offshore wind and floating solar farms is an attractive hybrid option that optimizes the areal power density for the renewable power production. However, an important consideration remains whether the strong waves expected in the high-wind environment would cause large displacement of the floating solar panels and therefore significantly affect the solar power output. The present study addresses this research question by simulating the power output of a floating solar array under various high wind and wave conditions at three offshore locations, considering the effects of temperature, humidity, wind speed and wave characteristics on the system electrical behavior. The wave-platform interaction is solved with fully developed sea states to predict the fluctuating tilt angles of the solar panels. Subsequently, the total solar power output is obtained considering the solar irradiation and the estimated operating temperature. The results show that the relative changes are small in all cases, implying that the solar power output would remain stable even under high wind and wave conditions. The optimal tilt angle of the floating PV panels is also examined for the three offshore locations. The study validates the feasibility of hybrid offshore wind-solar farms, provided that structural safety has been properly considered. Submitted/Accepted version 2023-01-16T02:13:24Z 2023-01-16T02:13:24Z 2023 Journal Article Bi, C. & Law, A. W. (2023). Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance. Energy, 266, 126437-. https://dx.doi.org/10.1016/j.energy.2022.126437 0360-5442 https://hdl.handle.net/10356/164309 10.1016/j.energy.2022.126437 2-s2.0-85144344859 266 126437 en Energy © 2022 Elsevier Ltd. All rights reserved. This paper was published in Energy and is made available with permission of Elsevier Ltd. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic Engineering::Environmental engineering
Floating Solar Farm
Power Output
spellingShingle Engineering::Environmental engineering
Floating Solar Farm
Power Output
Bi, Cheng
Law, Adrian Wing-Keung
Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
description The co-location of offshore wind and floating solar farms is an attractive hybrid option that optimizes the areal power density for the renewable power production. However, an important consideration remains whether the strong waves expected in the high-wind environment would cause large displacement of the floating solar panels and therefore significantly affect the solar power output. The present study addresses this research question by simulating the power output of a floating solar array under various high wind and wave conditions at three offshore locations, considering the effects of temperature, humidity, wind speed and wave characteristics on the system electrical behavior. The wave-platform interaction is solved with fully developed sea states to predict the fluctuating tilt angles of the solar panels. Subsequently, the total solar power output is obtained considering the solar irradiation and the estimated operating temperature. The results show that the relative changes are small in all cases, implying that the solar power output would remain stable even under high wind and wave conditions. The optimal tilt angle of the floating PV panels is also examined for the three offshore locations. The study validates the feasibility of hybrid offshore wind-solar farms, provided that structural safety has been properly considered.
author2 School of Civil and Environmental Engineering
author_facet School of Civil and Environmental Engineering
Bi, Cheng
Law, Adrian Wing-Keung
format Article
author Bi, Cheng
Law, Adrian Wing-Keung
author_sort Bi, Cheng
title Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
title_short Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
title_full Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
title_fullStr Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
title_full_unstemmed Co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
title_sort co-locating offshore wind and floating solar farms – effect of high wind and wave conditions on solar power performance
publishDate 2023
url https://hdl.handle.net/10356/164309
_version_ 1756370562046754816