研究简介Abstract

面向张力腿式浮式风机平台，利用 ANSYS AQWA 评估浮体运动与系泊张力，并结合 optiSLang 中的进化算法研究结构参数与预张力之间的权衡。在满足拖航稳性、运行与极端载荷工况下性能约束的基础上，以降低单位容量用钢量为设计目标。

This project studies a tension-leg floating wind turbine platform using ANSYS AQWA to assess platform motion and mooring loads. Evolutionary optimization in optiSLang is used to explore trade-offs among structural geometry, pretension, towing stability, and performance constraints, with structural steel use per rated capacity as a primary design objective.

研究方法与内容Methodology & Contributions

  • 在 ANSYS AQWA 中建立浮体–系泊耦合分析模型。Develop coupled floater–mooring models in ANSYS AQWA.
  • 分析平台拖航稳性、运动响应以及张力腿载荷。Evaluate towing stability, platform motions, and tendon loads.
  • 通过多目标进化算法开展参数寻优。Use multi-objective evolutionary algorithms for parametric optimization.
  • 对优化前后的结构性能和单位容量用钢量进行比较。Compare design performance and steel mass per unit capacity.

数值模拟与图片展示Simulation Gallery

下方图像为用于网站排版的示意素材。可替换为你自己的断裂云图、载荷曲线、模型快照或实际视频。These layout illustrations should be replaced with real fracture plots, ice-load histories, simulation renders, or videos from your work.

Schematic of material points and background grid
Figure 1. MPM particle–grid concept (illustration only).
Concept illustration of research area
Figure 2. Concept illustration; replace with verified simulation imagery.

演示视频Video Demonstration

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建议放置你的 MPM 计算结果 MP4，或嵌入 Bilibili / YouTube 视频。Insert your MPM animation as MP4, or embed a Bilibili / YouTube video.

相关论文与资源Paper & Resources

论文 PDF、技术文档、代码与补充材料可在此处添加，正式公开前请核对版本及分享权限。Add a verified paper PDF, technical document, source code, and supplemental files here when ready to share.

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