基于AI结合高程三角网算法的风机布置标高优化方法及系统

By combining AI technology with elevation triangulation algorithms, a triangulation graph structure is constructed, and graph convolution and attention networks are used to optimize the wind turbine foundation type. This solves the problems of error amplification and insufficient consistency analysis in traditional design, and achieves efficient and accurate wind turbine foundation layout design.

CN122133536BActive Publication Date: 2026-07-17ZHUHAI HUACHENG ELECTRIC POWER DESIGN INST CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
ZHUHAI HUACHENG ELECTRIC POWER DESIGN INST CO LTD
Filing Date
2026-05-08
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Traditional wind turbine foundation design suffers from problems such as triangular mesh interpolation errors leading to changes in foundation type, lack of spatial consistency analysis, large workload of manual verification, and low design efficiency.

Method used

By combining AI technology with elevation triangulation algorithms, elevation correction is performed by constructing a triangulation graph structure and a graph convolutional network model. Basic type space optimization is performed by combining a graph attention network. The optimal elevation is determined by elevation perturbation simulation and multi-objective optimization, and abnormal nodes are identified and optimized.

Benefits of technology

It improves the accuracy of elevation calculation, reduces the workload of manual verification, enhances design efficiency, and achieves spatial consistency and automated design of wind turbine foundation layout.

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Abstract

本申请公开了一种基于AI结合高程三角网算法的风机布置标高优化方法及系统,该方法包括,获取风机机位坐标、勘测点高程、三角网结构及工程边界条件,构建包含节点特征与边特征的三角网图结构,通过图卷积网络修正初始高程;再结合修正高程与边界条件确定初始风机基础类型并识别临界节点,构建风机机位空间邻接图,利用图注意力网络输出空间优化风机基础类型并识别异常节点;随后对风机基础类型不一致节点进行高程微扰仿真,通过多目标优化确定最优修正高程,标记人工复核节点;最后经迭代收敛得到最优高程与风机基础类型。本方法实现了高程与风机基础类型的双向耦合优化,提升了标高计算精度与风机基础类型选型合理性。
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