首页|多模块海上漂浮式光伏平台运动响应特性

多模块海上漂浮式光伏平台运动响应特性

扫码查看
针对传统漂浮式光伏(Floating Photovoltaic,FPV)平台难以适应复杂海洋环境载荷的问题,创新性地提出一种适用于海洋环境的多模块柔性连接FPV平台,模块之间采用铰接结构进行连接,使光伏阵列可以随波浪运动,从而降低结构间弯矩,提高光伏平台在海洋中的生存性能.采用AQWA软件对不同浪向角下多模块FPV平台的运动响应特性进行仿真分析.结果表明:在一般运行海况下,为了使所提出的FPV运动性能最优,光伏阵列布置方向应与浪向呈30°~60°角;中心光伏最大垂荡位移达1.89 m,光伏组件被海水浸没,应采用较高的光伏支架.
Motion Response Characteristics of Multi-Module Offshore Floating Photovoltaic Platform
To address the problem that the traditional Floating Photovoltaic(FPV)platform is difficult to adapt to the load of complex marine environment,an innovative multi-module flexible connected FPV platform suitable for marine environment is proposed,and the modules are connected by articulated structure,so that the photovoltaic array can move with the waves,thus reducing the bending moment between the structures and improving the survival performance of the photovoltaic platform in the ocean.The dynamic response characteristics of the multi-module FPV platform under varying wave angles are simulated using AQWA software.The results show that:under the general operating sea conditions,to make the kinematic performance of the proposed FPV optimal,the direction of the photovoltaic array arrangement should be at an angle of 30°-60° to the wave direction;the maximal heave displacement of the center photovoltaic reaches 1.89 m,the photovoltaic modules are submerged by seawater,and higher photovoltaic mounts should be used.

wave loadFloating Photovoltaic(FPV)flexible structuremodularitymotion response

张喆、李嘉康、樊天慧、姜雯

展开 >

南通理工学院建筑工程学院,江苏南通 226002

华南理工大学土木与交通学院,广东 广州 510006

大连理工大学建设工程学部,辽宁大连 116024

波浪载荷 漂浮式光伏 柔性结构 模块化 运动响应

2024

中国海洋平台
中国船舶工业集团公司第十一研究所

中国海洋平台

CSTPCD
影响因子:0.271
ISSN:1001-4500
年,卷(期):2024.39(6)