一种适用于中小型无人机抗风试验的复杂风场模拟方法

By generating directional microvortex groups using plasma exciter arrays and ultrasonic interferometry, and combining fuzzy PID control and deep spatiotemporal convolutional networks, the problems of turbulent microvortex distribution and flow field stability in wind resistance tests of small and medium-sized UAVs were solved, achieving high-precision three-dimensional turbulent field simulation and UAV wind resistance performance evaluation.

CN120740907BActive Publication Date: 2026-07-17JIANGSU SUPERVISION & INSPECTION INST FOR PROD QUALITY +1

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
JIANGSU SUPERVISION & INSPECTION INST FOR PROD QUALITY
Filing Date
2025-06-30
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing technologies lack sufficient precision in controlling the spatial distribution of turbulent micro-vortices during wind resistance tests of small and medium-sized UAVs, and the dynamic stability of the flow field is lacking under open-loop control, making it difficult to achieve precise control and maintain dynamic stability of the three-dimensional turbulent field.

Method used

By employing the coordinated control of plasma exciter array and ultrasonic interferometry, a directional micro-vortex group is generated. Combined with fuzzy PID control algorithm and deep spatiotemporal convolutional network, high-precision spatial distribution and closed-loop stability control of three-dimensional turbulent field are achieved.

Benefits of technology

It achieves high-precision spatial distribution control of three-dimensional turbulent fields and closed-loop stability under complex wind field environments, improving the accuracy and dynamic response capability of UAV wind resistance tests.

✦ Generated by Eureka AI based on patent content.

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Abstract

本发明公开了一种适用于中小型无人机抗风试验的复杂风场模拟方法,涉及智能风控技术领域,包括,基于等离子体激励器控制指令集,通过等离子体激励器阵列在风洞中生成定向微涡旋群,同时采用超声波干涉法调控定向微涡旋群的空间分布,生成三维湍流场;执行无人机抗风险测试,采集抗风性能数据结合PIV验证窝环结构的稳定性,并通过模糊PID控制算法动态调整;基于调整后的抗风试验数据构建判断矩阵,并采用动态时间规整算法计算无人机抗风性能指数,生成性能评估报告。本发明通过基于深度时空卷积网络的涡环稳定性特征提取与模糊PID动态调节,实现复杂风场环境下的闭环稳定性控制。
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