对于波浪能发电装置，海洋是一个十分恶劣的运行环境，往往面临极端风浪、电化学腐蚀和生物积垢等因素的不利影响，尤其是锈蚀和结构疲劳引起的应力破坏，均有可能导致装置浮体结构的破损进水，进而影响装置运行，甚至导致装置沉û。本文基于软件STARCCM+，建立多节漂浮式装置浮体破裂后内部进水过程模型，通过各浮体的响应功率和纵摇运动幅度来评估进水后的不利影响，从而探究该类装置的生存性和抗沉性。结果表明，四浮体装置的首节浮体进水不利影响最小，但相较正常工况，功率也下降了近50%。

 For wave energy converters, the sea is an awful running environment, the devices often face extreme wind and waves, electrochemical corrosion, and biofouling factors such as adverse effects, especially corrosion and its own structure fatigue caused by stress damage, which is likely to lead to the breakage of the buoy structure into the water, which affects the operation of devices, and even sink them. Based on the software STAR-CCM+, this study established a process model of internal water intake after the fracture of the buoy of the multi-buoy device. The adverse effects of water intake were evaluated through the response power and pitch motion amplitude of each buoy to explore the survivability and anti-sinking ability of this type of device. According to the results, the first buoy has the least adverse effect on the inflow. However, compared with the normal working condition, the power has also decreased by nearly 50%.