A floating photovoltaic system design for offshore deployment

Abstract This project presents a novel conceptual design for a floating photovoltaic (FPV) system capable of operating in harsh offshore environments. The system consists of multiple FPV modules, supported by tubular steel structures to elevate the panels over the water surface and prevent wave overtopping. Station keeping is achieved through a taut mooring system with suction anchors. Fiber ropes and shared anchors are used to reduce mooring costs. Distributed pontoons provide reserve buoyancy to maintain pretension in the mooring lines and prevent slack under extreme environmental conditions. The annual energy production and life-cycle economic feasibility of a large-scale deployment of FPV in regions with high solar resources are analyzed. Numerical simulations are performed using SIMA to evaluate the hydrodynamic response and mooring performance of the FPV module under a selected ultimate limit state representative of the selected deployment site. The results reveal that offshore FPV installations are structurally feasible in exposed seas but offer limited profitability, which is primarily constrained by the high expenses associated with mooring systems.

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Publication Details

Journal
Journal of Ocean Engineering and Marine Energy
Published
2026-08-18
DOI
https://doi.org/10.1007/s40722-026-00534-w
Primary Topic
Wave and Wind Energy Systems
Type
article
Field-Weighted Citation Impact
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article

A floating photovoltaic system design for offshore deployment

Xueliang Wen, Muk Chen Ong, Trym Ekerhovd
Journal of Ocean Engineering and Marine Energy
Wave and Wind Energy Systems
article

A floating photovoltaic system design for offshore deployment

Xueliang Wen, Muk Chen Ong, Trym Ekerhovd
article en

Abstract

Abstract This project presents a novel conceptual design for a floating photovoltaic (FPV) system capable of operating in harsh offshore environments. The system consists of multiple FPV modules, supported by tubular steel structures to elevate the panels over the water surface and prevent wave overtopping. Station keeping is achieved through a taut mooring system with suction anchors. Fiber ropes and shared anchors are used to reduce mooring costs. Distributed pontoons provide reserve buoyancy to maintain pretension in the mooring lines and prevent slack under extreme environmental conditions. The annual energy production and life-cycle economic feasibility of a large-scale deployment of FPV in regions with high solar resources are analyzed. Numerical simulations are performed using SIMA to evaluate the hydrodynamic response and mooring performance of the FPV module under a selected ultimate limit state representative of the selected deployment site. The results reveal that offshore FPV installations are structurally feasible in exposed seas but offer limited profitability, which is primarily constrained by the high expenses associated with mooring systems.

Journal of Ocean Engineering and Marine Energy
University of Stavanger (NO)
Openalex Percentile: Top 13%
Wave and Wind Energy Systems
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A floating photovoltaic system design for offshore deployment — Xueliang Wen, Muk Chen Ong, et al. · Journal of Ocean Engineering and Marine Energy (2026) | TGRS Research Map | TGRS