Floating photovoltaic (FPV) power generation technology in freshwater has addressed some of the limitations of traditional land-based photovoltaics and has seen rapid development over the past decade. Meanwhile, the application of FPV in marine environments has become an important area of research. The marine environment, characterized by its unique conditions such as salinity, wave action, and high humidity, differs significantly from terrestrial settings. Under similar lighting conditions, the open sea, which enjoys long hours of sunshine and high solar radiation, results in higher light utilization efficiency for offshore floating photovoltaic (OFPV) projects, thereby significantly enhancing power generation. However, ensuring the survival of OFPV in extreme natural conditions remains the greatest challenge for the future implementation of such projects. This paper first outlines the development of FPV systems, analyzing the forms, characteristics, and applicability of various floating structures in marine environments. The focus of the paper is on the fluid dynamic challenges that OFPV structures face under wave and wind loads. Based on the design feasibility of different OFPV structures, the paper reviews research findings on related structures from a design feasibility perspective and specifically introduces the core analytical methods for fluid dynamic calculations of OFPV systems with multi-module connections and membrane structures. Finally, the paper proposes potential future development directions for OFPV systems, highlighting areas for further research and innovation.
REFERENCES
1.
E.
Kabir
, P.
Kumar
, S.
Kumar
et al, “Solar energy: Potential and future prospects
,” Renewable Sustainable Energy Rev.
82
, 894
–900
(2018
).2.
S.
Yuen
, see https://solar.in-en.com/html/solar-2422033.shtml for “IEA: Global photovoltaic installed capacity exceeds 1.18 TW
” (accessed April 21, 2023
) (in Chinese).3.
L. K. W.
Charles
, J. R.
Lim
, C. S.
Won
et al, “Prediction model of photovoltaic module temperature for power performance of floating PVs
,” Energies
11
(2
), 447
(2018
).4.
A.
Sahu
, N.
Yadav
, and K.
Sudhakar
, “Floating photovoltaic power plant: A review
,” Renewable Sustainable Energy Rev.
66
, 815
–824
(2016
).5.
K.
Chidambarampadmavathy
, O. P.
Karthikeyan
, and K.
Heimann
, “Sustainable bio-plastic production through landfill methane recycling
,” Renewable Sustainable Energy Rev.
71
, 555
–562
(2017
).6.
A.
Goswami
and P. K.
Sadhu
, “Degradation analysis and the impacts on feasibility study of floating solar photovoltaic systems
,” Sustainable Energy Grids Networks
26
, 100425
(2021
).7.
S.
Patil Desai Sujay
, M. M.
Wagh
, and N. N.
Shinde
, “A review on floating solar photovoltaic power plants
,” Int. J. Sci. Eng. Res.
8
, 789
–794
(2017
).8.
B. Q.
Ye
, “Review of ocean engineering anchor type and development
,” Naval Archit. Ocean Eng.
3
, 1
–7
(2012
) (in Chinese).9.
H.
Yousuf
, M. Q.
Khokhar
, M. A.
Zahid
et al, “A review on floating photovoltaic technology (FPVT)
,” Curr. Photovoltaic Res.
8
(3
), 67
–78
(2020
).10.
R.
Cazzaniga
, M.
Cicu
, M.
Rosa-Clot
et al, “Floating photovoltaic plants: Performance analysis and design solutions
,” Renewable Sustainable Energy Rev.
81
, 1730
–1741
(2018
).11.
A.
Gaveau
, “Floating support device for a photovoltaic panel
,” U.S. patent 9,849,945 (26 December 2017
).12.
K.
Trapani
and D. L.
Millar
, “The thin film flexible floating PV (T3F-PV) array: The concept and development of the prototype
,” Renewable Energy
71
, 43
–50
(2014
).13.
Z.
Wang
, R.
Carriveau
, D. S. K.
Ting
et al, “A review of marine renewable energy storage
,” Int. J. Energy Res.
43
(12
), 6108
–6150
(2019
).14.
M.
Smyth
, J.
Russell
, and T.
Milanowski
, Solar Energy in the Winemaking Industry
(Springer Science & Business Media
, 2011
).15.
China-nengyuan.com
, see http://www.china-nengyuan.com/news/144423.html for “Maldives luxury resort benefits from floating photovoltaic arrays at sea
” (accessed August 27, 2019
) (in Chinese).16.
China power
, see http://www.chinapower.com.cn/tynfd/gjxw/20210128/48550.html for “Norwegian equinor to build world's first offshore floating solar power plant
” (accessed January 28, 2021
) (in Chinese).17.
E.
Bellini
, see https://www.pv-magazine.com/2021/07/16/first-lessons-learnt-from-offshore-pilot-pv-system-in-north-sea-after-18-month-operation/ for “First lessons learnt from offshore pilot PV system in North Sea after 18-month operation
” (accessed July 16, 2021
).18.
Ocean of Energy
, see https://oceansofenergy.blue/ for “A world's first: Offshore floating solar farm installed at the Dutch North Sea
” (2019
).19.
20.
21.
SolarDuck
, see https://solarduck.tech/patents/ for “Flexibly interconnected semi-sub triangular structures. Artificulated floating structure
,” PCT/EP2020/087842 (2020
).22.
A.
Garanovic
, see https://www.offshore-energy.biz/sunseap-installs-one-of-worlds-largest-offshore-floating-solar-farms-in-singapore/ for “Sunseap installs one of world's largest offshore floating solar farms in Singapore-Offshore Energy 2021
” (accessed March 24, 2021
).23.
J.
Scully
, see https://www.pv-tech.org/chenya-energy-eyes-floating-pv-growth-after-completing-181mwp-offshore-project/ for “Chenya Energy eyes floating PV growth after completing 181 MWp offshore project
,” PV Tech 2021 (accessed February 5, 2021
).24.
Qianjiang Evening News
, see https://baijiahao.baidu.com/s?id=1706586529117881425&wfr=spider&for=pc for “China's first offshore floating photovoltaic experiment results
” (accessed July 29, 2021
) (in Chinese).25.
G.
Amir
, see https://www.offshore-energy.biz/seavolt-launches-first-of-a-kind-offshore-solar-platform/ for “SeaVolt launches first of a kind offshore solar platform
” (accessed September 25, 2023
).26.
S.
Nadja
, see https://www.offshore-energy.biz/spanish-researchers-unveil-promising-solution-for-offshore-solar-energy-based-on-dual-axis-tracker-and-tlp/ for “Spanish researchers unveil ‘promising solution for offshore solar energy’ based on dual-axis tracker and TLP
” (accessed January 20, 2024
).27.
BlueNewables
, see https://bluenewables.com/ for “1 MW PV-bos hits milestones in Valencia: Design optimized, suppliers on board, construction set for 2024
” (accessed January 18, 2024
).28.
DAS-Solar
, see https://pro742522-pic13.websiteonline.cn/upload/0fgt.pdf for “Overall design plan for the megawatt-scale offshore floating photovoltaic system sea test array
” (accessed March 22, 2022
) (in Chinese).29.
International Shipbuilding Network
, see https://www.eworldship.com/html/2023/NewShipUnderConstruction_0406/191264.html for “Delivery of the first domestically built semi-submersible offshore photovoltaic power generation platform by CIMC Raffles
” (accessed April 6, 2023
) (in Chinese).30.
Sobee Photovoltaic Network
, see https://news.solarbe.com/202309/04/371412.html for “The offshore floating photovoltaic demonstration platform independently developed by Shandong Electric Power Engineering Consulting Institute of State Power Investment Corporation Successfully Operational
” (accessed April 9, 2023
) (in Chinese).31.
Tianjin University
, “A floating platform structure suitable for offshore floating photovoltaic systems
,” Patent No. 114385140, http://epub.cnipa.gov.cn/Dxb/IndexQuery (accessed January 30, 2024
) (in Chinese).32.
Tianjin North News
, see http://tianjinwe.enorth.com.cn/system/2023/10/31/054579424.shtml for “State Power Investment Corporation's offshore floating photovoltaic project becomes operational today
” (accessed October 31, 2023
) (in Chinese).33.
China Forestry Group
, see https://www.cfgc.cn/g4430/s9681/t32517.aspx for “The bamboo-based offshore photovoltaic platform jointly developed by China Forestry Group Officially Released
” (accessed August 31, 2023
) (in Chinese).34.
National Institute for Clean and Low-carbon Energy Research, Beijing
, see https://www.nicenergy.com/dtyww/dtxw/202404/ea0c67d7e09b4973a57767f39a5bd354.shtml for “The new material buoy developed by the Institute Successfully Applied in the First Offshore Floating Photovoltaic Demonstration Project of China Energy Investment Corporation
” (accessed April 17, 2024
) (in Chinese).35.
R.
Cazzaniga
, M.
Cicu
, M.
Rosa-Clot
et al, “Compressed air energy storage integrated with floating photovoltaic plant
,” J. Energy Storage
13
, 48
–57
(2017
).36.
R.
Cazzaniga
, “Floating PV structures
,” in Float. PV Plants
, edited by M.
Rosa-Clot
and G.
Marco Tina
(Academic Press
, 2020
), Chap. 4, pp. 33
–45
.37.
M. R.
Clot
, P. R.
Clot
, and S.
Carrara
, “Apparatus and method for generating electricity using photovoltaic panels
,” WO2010/026542 (2011
).38.
T. D.
Lee
and A. U.
Ebong
, “A review of thin film solar cell technologies and challenges
,” Renewable Sustainable Energy Rev.
70
, 1286
–1297
(2017
).39.
K.
Trapani
and D. L.
Millar
, “Floating photovoltaic arrays to power the mining industry: A case study for the McFaulds lake (Ring of Fire)
,” Environ. Prog. Sustainable Energy
35
, 898
–905
(2016
).40.
K.
Trapani
and M. R.
Santafé
, “A review of floating photovoltaic installations: 2007–2013
,” Prog. Photovoltaics Res. Appl.
23
, 524
–532
(2015
).41.
I.
Kougias
, S.
Szabo
, F.
Monforti-Ferrario
et al, “A methodology for optimization of the complementarity between small-hydropower plants and solar PV systems
,” Renewable Energy
87
, 1023
–1230
(2016
).42.
A. K.
Sahu
and K.
Sudhakar
, “Effect of UV exposure on bimodal HDPE floats for floating solar application
,” J. Mater. Res. Technol.
8
(1
), 147
–156
(2019
).43.
H.
Liu
, V.
Krishna
, L. J.
Lun
et al, “Field experience and performance analysis of floating PV technologies in the tropics
,” Prog. Photovoltaics Res. Appl.
26
(12
), 957
–967
(2018
).44.
S.
Oliveira-Pinto
and J.
Stokkermans
, “Marine floating solar plants: An overview of potential, challenges and feasibility
,” in Proceedings of the Institution of Civil Engineers-Maritime Engineering
(Thomas Telford Ltd, 2020
), Vol. 173
(4
), pp. 120
–135
.45.
C.
John
, J.
Paul
, and Y. S.
Choo
, Encyclopedia of Maritime and Offshore Engineering
(John Wiley & Sons, Ltd
., 2018
).46.
M. K.
Kaymak
and A. D.
Şahin
, “Problems encountered with floating photovoltaic systems under real conditions: A new FPV concept and novel solutions
,” Sustainable Energy Technol. Assess.
47
, 101504
(2021
).47.
M.
Willuhn
, see https://www.pv-magazine.com/2020/02/22/the-weekend-read-dont-throw-caution-to-the-wind/ for “The weekend read: Don't throw caution to the wind
” (accessed February 22, 2020
).48.
S. S.
Xu
, J. H.
Yao
, and D. Y.
Huang
, “Analysis of corrosion effects of floating photovoltaic power generation system materials in marine environment
,” Sol. Energy.
342
(10
), 27
–32
(2022
) (in Chinese).49.
M.
Ikhennicheu
, B.
Danglade
, R.
Pascal
et al, “Analytical method for loads determination on floating solar farms in three typical environments
,” Sol. Energy
219
, 34
–41
(2021
).50.
DNV
, Environmental Conditions and Environmental Loads.
DNVGL-RP-C205 (Det Norske Veritas
, January 9, 2021
).51.
C. Y.
Ji
, Y. X.
Hao
, and S.
Xu
, “Experimental and numerical study on the hydrodynamic responses of a novel offshore floating photovoltaic system
,” Ocean Eng.
315
, 119797
(2025
).52.
Y.
Pan
, J. W.
Hong
, D. W.
Xue
et al, “A SPH method to assess the dynamic behavior for multiconnected floating photovoltaic units consisting of non-uniform supporting frames in waves
,” Ocean Eng.
323
, 120622
(2025
).53.
H. J.
Li
, Q. J.
Jiang
, D. Q.
Zhang
et al, “Hydrodynamic analysis of marine floating photovoltaics under the influence of seabed topography and coastlines
,” Ocean Eng.
314
, 119708
(2024
).54.
W. H.
Xu
, X. R.
Zhang
, Y. M.
Sun
et al, “Hydrodynamic characteristics and technoeconomic analysis of floating photovoltaic arrays considering different mooring forms
,” Ocean Eng.
320
, 120288
(2025
).55.
L. C.
Xiong
, C. H.
Le
, P. Y.
Zhang
et al, “Hydrodynamic characteristics of floating photovoltaic systems based on membrane structures in maritime environment
,” Ocean Eng.
315
, 119827
(2025
).56.
W. H.
Xu
, Y. M.
Sun
, and Z. Q.
He
, “Hydrodynamic performance study of floating photovoltaic arrays with multiple floating bodies
,” Appl. Ocean Res.
153
, 104286
(2024
).57.
J.
Fu
, Y. P.
Zhao
, G. C.
Jia
et al, “Numerical study on wave–wind coupling effects on hydrodynamics and light capture performance of offshore multi-body floating photovoltaic system
,” Ocean Eng.
323
, 120593
(2025
).58.
C. Y.
Ji
, X. B.
Gao
, and S.
Xu
, “Study on the influence of connector designs on the hydrodynamic performance of an offshore floating photovoltaic
,” Ocean Eng.
308
, 118298
(2024
).59.
Y.
Li
, G. Y.
Li
, Y. W.
Cui
et al, “The influence of multi-body interaction on the hydrodynamic performance of a hexagon-type floating photovoltaic
,” Ocean Eng.
312
, 119302
(2024
).60.
J. H.
Lee
, K. J.
Paik
, S. H.
Lee
et al, “Experimental and numerical study on the characteristics of motion and load for a floating solar power farm under regular waves
,” J. Mar. Sci. Eng.
10
, 565
(2022
).61.
S. W.
Da
, S. X.
Fu
, Y. W.
Xu
et al, “Study on the dynamic response of floating photovoltaic arrays and the characteristics of the connectors
,” The Ocean Eng.
43
(1
), 15
–29
(2025
) (in Chinese).62.
Z. L.
Tian
, X. P.
Qiu
, and H. J.
Wen
, “Numerical study on the hydrodynamic characteristics of offshore photovoltaic panels under extreme sea conditions
,” The Ocean Eng.
43
(1
), 31
–39
(2025
) (in Chinese).63.
X. M.
Jiang
, Y. H.
Wei
, J. K.
Liu
et al, “Research on the applicability of hybrid mooring systems for floating photovoltaic in environments with extremely shallow water and large tidal range
,” The Ocean Eng.
43
(1
), 48
–61
(2025
) (in Chinese).64.
B.
Liu
, X. T.
Zhang
, G.
Li
et al, “Dynamic response study of towage for membrane-type photovoltaic platforms
,” The Ocean Eng.
43
(1
), 62
–73
(2025
) (in Chinese).65.
Y. H.
Wu
, Y. F.
Li
, J. H.
Zhu
et al, “Experimental study on the effect of waves on flexible membrane-type offshore floating photovoltaic structures
,” The Ocean Eng.
43
(1
), 40
–47
(2025
) (in Chinese).66.
H.
Kagemoto
and D. K. P.
Yue
, “Interaction among multiple three-dimensional bodies in water waves: An exact algebraic method
,” J. Fluid Mech.
166
, 189
–209
(1986
).67.
C. M.
Linton
and D. V.
Evans
, “The interaction of waves with arrays of vertical circular cylinders
,” J. Fluid Mech.
215
, 549
–569
(1990
).68.
A. N.
Williams
and W.
Li
, “Water wave interactions with an array of bottom-mounted surface-piercing porous cylinders
,” Ocean Eng.
27
, 841
–866
(2000
).69.
P. W.
Cong
, W.
Bai
, and B.
Teng
, “Analytical modeling of water wave interaction with a bottom-mounted surface-piercing porous cylinder in front of a vertical wall
,” J. Fluids Struct.
88
, 292
–314
(2019
).70.
J. N.
Newman
, “Wave effects on deformable bodies
,” Appl. Ocean Res.
16
(1
), 47
–59
(1994
).71.
C. H.
Lee
and J. N.
Newman
, “An assessment of hydroelasticity for very large hinged vessels
,” J. Fluid Struct.
14
, 957
–970
(2000
).72.
I.
Diamantoulaki
and D. C.
Angelides
, “Analysis of performance of hinged floating breakwaters
,” Eng. Struct.
32
(8
), 2407
–2423
(2010
).73.
I.
Diamantoulaki
and D. C.
Angelides
, “Modeling of cable-moored floating breakwaters connected with hinges
,” Eng. Struct.
33
(5
), 1536
–1552
(2011
).74.
Y.
Gou
, B.
Teng
, and D. Z.
Ning
, “Interaction effects between wave and two connected floating bodies
,” Eng. Sci.
6
(7
), 75
–80
(2004
) (in Chinese).75.
G. B.
Wang
, Numerical Analysis on the Interaction between Waves and Hingly Connected Multiple Floating Bodies
(Dalian University of Technology
, Dalian
, 2015
) (in Chinese).76.
K.
Wang
, Z. Q.
Zhang
, and Y.
Liu
, “Study on motion response of floating hinged multi-plates
,” J. Ship Mech.
21
(11
), 1365
–1373
(2017
) (in Chinese).77.
J.
Song
, J.
Kim
, J.
Lee
et al, “Dynamic response of multiconnected floating solar panel systems with vertical cylinders
,” J. Mar. Sci. Eng.
10
, 189
(2022
).78.
L. F.
Song
, Research on the Hydrodynamic Performance of Articulated Multi-float Structures
(Harbin Engineering University
, Harbin
, 2018
) (in Chinese).79.
Q.
Zou
, S. X.
Peng
, Z. K.
Zhang
et al, “Simulation and experimental study of coupling of hinged multiple floating bodies and waves
,” J. Nanjing Univ. Sci. Technol.
43
(3
), 333
–336+363
(2019
) (in Chinese).80.
M.
Onsrud
, An Experimental Study on the Wave-Induced Vertical Response of an Articulated Multi-module Floating Solar Island
(NTNU
, 2019
).81.
H.
Wu
, Research on the Load and Response Characteristics of Articulated Connectors for Multi-float Structures
(Wuhan University of Technology
, Wuhan
, 2022
) (in Chinese).82.
W. S.
Wang
, J. Q.
Jiang
, and S. W.
Sheng
, “Study on motion response and power capture characteristics of hinged multiple floating bodies wave energy converter
,” Acta Energ. Sol. Sin.
44
(3
), 318
–333
(2022
) (in Chinese).83.
A. M.
Mansour
, E. W.
Huang
, and Z.
Zhong
, “Performance evaluation of articulated multi-body floaters in harsh environment
,” in International Offshore and Polar Engineering Conference
, Houston, Texas, USA
(2008
).84.
R.
Ding
, C. R.
Liu
, H. C.
Zhang
et al, “Experimental investigation on characteristic change of a scale-extendable chain-type floating structure
,” Ocean Eng.
213
, 107778
(2020
).85.
S.
Fu
, T.
Moan
, X.
Chen
et al, “Hydroelastic analysis of flexible floating interconnected structures
,” Ocean Eng.
34
(11
), 1516
–1531
(2007
).86.
B. W.
Kim
, Y. S.
Hong
, J. H.
Kyoung
et al, “Evaluation of bending moments and shear forces at unit connections of very large floating structures using hydroelastic and rigid analyses
,” Ocean Eng.
34
(11
), 1668
–1679
(2007
).87.
X. J.
Chen
, W. C.
Cui
, Q.
Shen
et al, “New method for predicting the motion responses of a flexible joint multi-body floating system to irregular waves
,” China Ocean Eng.
15
(4
), 491
–498
(2001
).88.
F. Q.
Xiao
, Z. G.
Chen
, Y.
Dai
et al, “Numerical method study on environmental loads of floating photovoltaic power array
,” Eng. Mech.
37
(3
), 245
–256
(2020
) (in Chinese).89.
X. H.
Shi
, Z.
Sun
, and J.
Zhang
, “Kinematic response analysis of multi-body floating photovoltaic array considering stiffness of connecting parts
,” Acta Energ. Sol. Sin.
44
(8
), 301
–306
(2023
) (in Chinese).90.
Y. H.
Wang
, X. F.
Wang
, S. W.
Xu
et al, “Influence of multi-module VLFS connector stiffness on dynamic response performance
,” The Ocean Eng.
36
(4
), 11
–18
(2018
) (in Chinese).91.
Z. X.
Sun
, Y.
Song
, Y. J.
Tian
et al, “Hydrodynamic characteristics of a flexible floating anti-collision system under beam and oblique irregular waves
,” Ocean Eng.
251
, 111107
(2022
).92.
Z. X.
Sun
, Y.
Song
, L. Y.
Guan
et al, “Dynamic responses of a flexible floating modular system subjected to ship impact
,” Ocean Eng.
264
, 112520
(2022
).93.
R. E. D.
Bishop
and W. G.
Price
, Hydroelasticity of Ships
(Cambridge University of Press
, Cambridge
, 1979
).94.
95.
R. E. D.
Bishop
, W. G.
Price
, and P.
Ternarel
, “A general linear hydroelasticity theory of floating structures moving in a seaway
,” Philos. Trans. R. Soc. London, Ser. A
316
, 375
–426
(1986
).96.
I.
Senjanovic
, S.
Malenica
, and S.
Tomasevic
, “Investigation of ship hydroelasticity
,” Ocean Eng.
35
(5/6
), 523
–535
(2008
).97.
R. E.
Taylor
and M.
Ohkusu
, “Green functions for hydroelastic analysis of vibrating free–free beams and plates
,” Appl. Ocean Res.
22
, 295
–314
(2000
).98.
R. E.
Taylor
, “Hydroelastic analysis of plates and some approximations
,” J. Eng. Math.
58
, 267
–278
(2007
).99.
D.
Lu
, S.
Fu
, X.
Zhang
et al, “A method to estimate the hydroelastic behaviour of VLFS based on multi-rigid-body dynamics and beam bending
,” Ships Offshore Struct.
14
(4
), 354
–362
(2019
).100.
X.
Zhang
, D.
Lu
, Y.
Gao
et al, “A time domain discrete-module-beam-bending-based hydroelasticity method for the transient response of very large floating structures under unsteady external loads
,” Ocean Eng.
164
, 332
–349
(2018
).101.
Y.
Zhang
, X.
Zhang
, Y.
Chen
et al, “A frequency-domain hydroelastic analysis of a membrane-based offshore floating photovoltaic platform in regular waves
,” J. Fluids Struct.
127
, 104125
(2024
).102.
E.
Watanabe
, T.
Ustunomiya
, and C. M.
Wang
, “Hydroelastic analysis of pontoon-type VLFS: A linear survey
,” Eng. Struct.
26
, 245
–256
(2004
).103.
W. C.
Cui
, “Current status and future directions in predicting the hydroelastic response of very large floating structures
,” J. Ship Mech.
6
(1
), 73
–90
(2002
) (in Chinese).104.
B.
Teng
and Y.
Gou
, “Hydroelastic analysis of very large floating structure in frequency domain
,” Eng. Mech.
23
(2
), 36
–48
(2006
) (in Chinese).105.
M.
Ohkusu
, “Hydroelastic interaction of a large floating platform with head seas
,” in Proceedings of the 14th IWWWFB
, Michigan (1998
).106.
W. C.
Cui
and H.
Song
, “An improved simplified method for predicting the hydroelastic response of mat-like VLFS
,” China Ocean Eng.
15
(3
), 18
–33
(2001
).107.
M.
Kashiwagi
, “A time-domain mode-expansion method for calculating transient elastic responses of a pontoon-type VLFS
,” J. Mar. Sci. Technol.
5
(2
), 89
–100
(2000
).108.
H.
Li
, 3-D Hydroelasticity Analysis Method for Wave Loads of Ship
(Harbin Engineering University
, Harbin
, 2009
) (in Chinese).109.
Z. J.
Wang
, R. P.
Li
, and Z.
Shu
, “The effect of various dry structural model on hydroelastic response of box-type very large floating structures
,” The Ocean Eng.
20
(1
), 1
–6
(2002
) (in Chinese).110.
Z. J.
Wang
, R. P.
Li
, and Z.
Shu
, “Study on hydroelastic response of box-shaped very large floating structure in regular waves
,” The Ocean Eng.
19
(3
), 9
–13
(2001
) (in Chinese).111.
G. J.
Chen
and J. M.
Yang
, “Overview of experimental research on very large floating structure
,” Shanghai Shipbuild.
2
, 22
–24
(2002
) (in Chinese).112.
G. J.
Chen
, J. M.
Yang
, and C. Y.
Zhang
, “Experimental research on hydroelasticity on box-typed flexible VLFS in waves
,” The Ocean Eng.
21
(3
), 1
–5
(2003
) (in Chinese).113.
Y.
Cheng
, Hydroelastic Analysis of a Supper Large Floating Structure Edged with Perforated Anti-motion Plates
(Dalian University of Technology
, Dalian
, 2015
) (in Chinese).114.
O. M.
Faltinsen
, “Hydroelatic slamming
,” J. Mar. Sci. Technol.
5
(2
), 49
–65
(2000
).115.
X. J.
Chen
, Y. S.
Wu
, W. C.
Cui
et al, “Review of hydroelasticity theories for global response of marine structures
,” Ocean Eng.
33
, 439
–457
(2006
).116.
Q. B.
Wang
, Hydroelastic Responses of Pontoon-Type Very Large Floating Structures in Random Water Waves and in Nearshore Regions
(Dalian University of Technology
, Dalian
, 2015
) (in Chinese).117.
X. J.
Chen
, Analysis Method for Second-Order Nonlinear Hydroelastic Mechanics of Floating Structures
(China Ship Scientific Research Center
, 2001
) (in Chinese).118.
G. M.
Hegarty
and V. A.
Squire
, “A boundary-integral method for the interaction of large-amplitude ocean waves with a compliant floating raft such as a sea-ice floe
,” J. Eng. Math.
62
, 355
–372
(2008
).119.
P.
Wang
, “The nonlinear hydroelastic response of a semi-infinite elastic plate floating on a fluid due to incident progressive waves
,” Adv. Math. Phys.
2015
(1
), 308318
.120.
M.
Mollazadeh
, M. J.
Khanjani
, and A.
Tavakoli
, “Applicability of the method of fundamental solutions to interaction of fully nonlinear water waves with a semi-infinite floating ice plate
,” Cold Reg. Sci. Technol.
69
(1
), 52
–58
(2011
).121.
F.
Mirafzali
, A.
Tavakoli
, and M.
Mollazadeh
, “Hydroelastic analysis of fully nonlinear water waves with floating elastic plate via multiple knot B-splines
,” Appl. Ocean Res.
51
, 171
–180
(2015
).122.
K.
Heo
and M.
Kashiwagi
, “A numerical study of second-order springing of an elastic body using higher-order boundary element method (HOBEM)
,” Appl. Ocean Res.
93
, 101903
(2019
).123.
Y.
Cheng
, C. Y.
Ji
, G. J.
Zhai
et al, “Fully nonlinear numerical investigation on hydroelastic responses of floating elastic plate over variable depth sea-bottom
,” Mar. Struct.
55
, 37
–61
(2017
).124.
C.
Ma
, K.
Iijima
, and M.
Oka
, “Nonlinear waves in a floating thin elastic plate, predicted by a coupled SPH and FEM simulation and by an analytical solution
,” Ocean Eng.
204
, 107243
(2020
).125.
K.
Iijima
, C.
Ma
, A. R.
Pambela
et al, “DIC measurement of deflection waves travelling along a thin flexural plate floating at water surface
,” Ocean Eng.
266
, 113079
(2022
).126.
S.
Liang
, B.
Teng
, and Y.
Gou
, “The singularity in the second-order solution of flexural-gravity waves and the influence of plate length on the second-order response of a finite elastic plate
,” Ocean Eng.
246
, 110663
(2022
).127.
S.
Liang
, Y.
Gou
, and B.
Teng
, “The nonlinear wave interaction with a two-dimensional large-scale floating elastic plate
,” Ocean Eng.
282
, 115046
(2023
).128.
S.
Liang
, Y.
Gou
, and B.
Teng
, “A three-dimensional nonlinear hydroelastic model for rectangular floating elastic plates and the examination on the peak frequency with maximum nonlinear response
,” J. Fluids Struct.
131
, 104217
(2024
).129.
X. X.
Gao
, Research on Influence Factors of Wind Load of Solar Photovoltaic Array
(Anhui University of Science and Technology
, Huainan
, 2018
) (in Chinese).130.
W.
Gao
, Introduction to and Improvement of ANSYS AQWA Software
(China Water & Power Press
, Beijing
, 2017
) (in Chinese).131.
M.
Ghobadi
, see https://www.dnv.com/news/dnv-gl-launches-industry-wide-collaboration-to-develop-first-ever-recommended-practice-for-floating-solar-power-plants-177287 for “DNV GL launches industry-wide collaboration to develop first ever Recommended Practice for floating solar power plants
” (accessed September 6, 2020
).132.
China Classification Society
, Rules for Classification of Mobile Offshore Units 2023
(China Classification Society
, Beijing
, 2023
) (in Chinese).133.
S. H.
Kim
, S. J.
Yoon
, and W.
Choi
, “Design and construction of 1 MW class floating PV generation structural system using FRP members
,” Energies
10
, 1142
(2017
).134.
S. H.
Kim
, S. C.
Baek
, K. B.
Choi
et al, “Design and installation of 500-kW floating photovoltaic structures using high-durability steel
,” Energies
13
, 4996
(2020
).135.
A.
Mignone
, G.
Inghirami
, F.
Rubini
et al, “Numerical simulations of wind-loaded floating solar panels
,” Sol. Energy
219
, 42
–49
(2021
).136.
K. C.
Su
, P. H.
Chung
, and R. Y.
Yang
, “Numerical simulation of wind loads on an offshore PV panel: The effect of wave angle
,” J. Mech.
37
, 53
–62
(2020
).137.
S. M.
Choi
, C. D.
Park
, S. H.
Cho
et al, “Effects of wind loads on the solar panel array of a floating photovoltaic system – Experimental study and economic analysis
,” Energy
256
, 124649
(2022
).138.
Y. K.
Choi
and Y. G.
Lee
, “A study on development of rotary structure for tracking-type floating photovoltaic system
,” Int. J. Precis. Eng. Manuf.
15
, 2453
–2460
(2014
).139.
S. M.
Choi
, G. R.
Lee
, C. D.
Park
et al, “Wind load on the solar panel array of a floating photovoltaic system under extreme hurricane conditions
,” Sustainable Energy Technol. Assess.
48
, 101616
(2021
).140.
K.
Debnath
, C. C.
Hsieh
, C. Y.
Huang
et al, “Experimental investigation and economic evaluation of wind impacts on the solar panel array of a floating photovoltaic (FPV) system across different turbulence intensities
,” Energy Nexus
17
, 100380
(2025
).141.
J.
Zeng
, D.
Li
, W. P.
Chen
et al, “Dynamic stability analysis for foundation of floating PV power station
,” Yangtze River
49
(2
), 79
–83
(2018
) (in Chinese).142.
X.
Pan
, J.
Zeng
, D.
Li
et al, “Structural analysis of floating foundation of floating PV power station on water
,” Yangtze River
48
(20
), 80
–85
(2017
) (in Chinese).143.
Z. H.
Tian
, H. B.
Liu
, F.
Yu
et al, “Research on safety assessment methods of floating photovoltaic floating structure
,” J. Wuhan Univ. Technol. (Transp. Sci. Eng.)
42
(4
), 631
–636
(2018
) (in Chinese).144.
Y. G.
Lee
, H. J.
Joo
, and S. J.
Yoon
, “Design and installation of floating type photovoltaic energy generation system using FRP members
,” Sol. Energy
108
, 13
–27
(2014
).145.
Y. G.
Lee
, H. J.
Joo
, J. H.
Nam
et al, “Modified design of floating type photovoltaic energy generation system
,” J. Korean Soc. Adv. Compos. Struct.
1
(4
), 18
–27
(2010
).146.
S. Y.
Kim
, E.
Choi
, S. J.
Yoon
et al, “Three dimensional hydrodynamic-structural analysis of floating type photovoltaic composite structure
,” in Advances in Interaction & Multiscale Mechanics (AIMM'10)
, Jeju, Korea
(2010
).147.
R.
Claus
and M.
Lopez
, “A methodology to assess the dynamic response and the structural performance of floating photovoltaic systems
,” Sol. Energy
262
, 111826
(2023
).148.
X.
He
, G. F.
Li
, X.
Ge
et al, “Analysis of irradiation on floating solar panels affected by ocean waves
,” Chin. J. Eng. Des.
21
(6
), 545
–549
(2014
) (in Chinese).149.
W. H.
Lu
, J. J.
Lian
, X. F.
Dong
et al, “Effect of sea waves on radiant energy of floating photovoltaic
,” J. Hydroelectric Eng.
42
(5
), 35
–42
(2023
) (in Chinese).150.
R.
Bugeja
, L.
Mule'stagno
, and N.
Branche
, “The effect of wave response motion on the insolation on offshore photovoltaic installations
,” Sol. Energy Adv.
1
, 100008
(2021
).151.
Y. C.
Tang
, X.
Chen
, C. Z.
Huang
et al, “Dynamic analysis of multi-module floating photovoltaic platforms with composite mooring system by considering tidal variation and platform configuration
,” Ocean Eng.
312
, 119243
(2024
).152.
J. F.
Du
, D. Q.
Zhang
, Y. F.
Zhang
et al, “Design and comparative analysis of alternative mooring systems for offshore floating photovoltaics arrays in ultra-shallow water with significant tidal range
,” Ocean Eng.
302
, 117649
(2024
).153.
154.
N.
Baderiya
, see https://www.researchgate.net/publication/355844872_Mooring_Analysis_of_a_Novel_FSPV_Plant_in_Offshore_Environment for “Mooring analysis of a novel FSPV plant in offshore environment
” (University of Liège
, 2020
).155.
DNV
, Offshore Standard
, DNV-OS-E301 (Det Norske Veritas
, July 2023
).156.
ABS
, Guide for Performance Standards for Corrosion Protection
(American Bureau of Shipping
, January 2024
).157.
M.
López
, N.
Rodríguez
, and G.
Iglesias
, “Combined floating offshore wind and solar PV
,” J. Mar. Sci. Eng.
8
(8
), 576
(2020
).158.
S. Z. M.
Golroodbari
, D. F.
Vaartjes
, J. B. L.
Meit
et al, “Pooling the cable: A techno-economic feasibility study of integrating offshore floating photovoltaic solar technology within an offshore wind park
,” Sol. Energy
219
, 65
–74
(2021
).159.
C.
Bi
and A. W. K.
Law
, “Co-locating offshore wind and floating solar farms – Effect of high wind and wave conditions on solar power performance
,” Energy
266
, 126437
(2023
).160.
R. J. A. M.
Stevens
, “Dependence of optimal wind turbine spacing on wind farm length
,” Wind Energy
19
(4
), 651
–663
(2016
).161.
W.
Nookuea
, P. E.
Campana
, and J.
Yan
, “Evaluation of solar PV and wind alternatives for self renewable energy supply: Case study of shrimp cultivation
,” Energy Procedia
88
, 462
–469
(2016
).162.
D.
Hao
, “Integration of fishing and solar energy to promote transformation and upgrading of aquaculture industry
,” Fish. Sci. Technol. Inf.
43
(4
), 220
–221
(2016
) (in Chinese).163.
J.
López-Queija
, E.
Robles
, J.
Jugo
et al, “Review of control technologies for floating offshore wind turbines
,” Renewable Sustainable Energy Rev.
167
, 112787
(2022
).164.
A.
Otter
, J.
Murphy
, V.
Pakrashi
et al, “A review of modelling techniques for floating offshore wind turbines
,” Wind Energy
25
(5
), 831
–857
(2022
).165.
X. B.
Wang
, C.
Cai
, S. G.
Cai
et al, “A review of A review of aerodynamic and wake characteristics of floating offshore wind turbines
,” Renewable Sustainable Energy Rev.
175
, 113144
(2023
).166.
E. H.
John
and J. A.
Frank
, “A review of the technology and economics of marine fish cage systems
,” Aquaculture
15
(2
), 151
–170
(1978
).167.
T. J.
Xu
, Y. P.
Zhao
, G. H.
Dong
et al, “Analysis of hydrodynamic behavior of a submersible net cage and mooring system in waves and current
,” Appl. Ocean Res.
42
, 155
–167
(2013
).168.
X. H.
Huang
, G. X.
Guo
, Q. Y.
Tao
et al, “Dynamic deformation of the floating collar of a net cage under the combined effect of waves and current
,” Aquacult. Eng.
83
, 47
–56
(2018
).169.
I.
Amin
, M. E. A.
Ali
, S.
Bayoumi
et al, “Conceptual design and numerical analysis of a novel floating desalination plant powered by marine renewable energy for Egypt
,” J. Mar. Sci. Eng.
8
(2
), 95
(2020
).170.
S.
Oliveira-Pinto
, P.
Rosa-Santos
, and F.
Taveira-Pinto
, “Assessment of the potential of combining wave and solar energy resources to power supply worldwide offshore oil and gas platforms
,” Energy Convers. Manage.
223
, 113299
(2020
).171.
X.
Zheng
, H.
Zheng
, Y.
Lei
et al, “An offshore floating wind–solar–aquaculture system: Concept design and extreme response in survival conditions
,” Energies
13
(3
), 604
(2020
).172.
E.
Solomin
, E.
Sirotkin
, E.
Cuce
et al, “Hybrid floating solar plant designs: A review
,” Energies
14
(10
), 2751
(2021
).173.
P. V.
Magazine
, see https://www.pv-magazine.com/2021/01/15/offshore-hydrogen-production-powered-by-floating-pv/ for “Offshore hydrogen production powered by floating PV
” (pv magazine International
, accessed January 15, 2021
).174.
P. Y.
He
, J.
Jiao
, C.
Wang
et al, “Research on the hydropower on grid price feed-in tariff based on capacity compensation and green value–A case study of Sichuan Province
,” China Rural Water Hydropower
11
, 172
–178
(2022
) (in Chinese).175.
Z. Y.
Qiao
, “On the market-oriented guiding mechanism of electricity price form pumped storage power stations under the electricity reform situation
,” Hydropower New Energy
34
(12
), 58
–62
(2020
) (in Chinese).176.
X. M.
Wang
, Z. Y.
Ma
, W. X.
Zhou
et al, “Carbon neutralization in photovoltaic power generation system and influencing factors
,” Resour. Sci.
44
(8
), 1735
–1744
(2022
) (in Chinese).177.
X.
Tian
, S. C.
Ji
, P.
Zhang
et al, “Study on the output characteristics of photovoltaic and wind power generation in Qinghai
,” Northwest Hydropower
2019
, 1
–6
(in Chinese).178.
J. H.
Zhu
, “Analysis of power generation technology and economy on the integration of seawater pump & storage and offshore PV
,” South. Energy Constr.
10
(2
), 11
–17
(2023
) (in Chinese).© 2025 Author(s). Published under an exclusive license by AIP Publishing.
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