刚度
航空航天
承重
方位(导航)
耐久性
比模量
机器人学
结构工程
翼
计算机科学
抗冲击性
机械工程
工程类
材料科学
航空航天工程
机器人
人工智能
复合材料
复合数
数据库
算法
作者
Ali Khaheshi,Stanislav N. Gorb,Hamed Rajabi
标识
DOI:10.1002/advs.202004338
摘要
Structures with variable stiffness have received increasing attention in the fields of robotics, aerospace, structural, and biomedical engineering. This is because they not only adapt to applied loads, but can also combine mutually exclusive properties. Here inspired by insect wings, the concept of "triple stiffness" is introduced and applied to engineering systems that exhibit three distinct deformability regimes. By implementing "flexible joints," "mechanical stoppers," and "buckling zones," structures are engineered to be not only load-bearing and durable, but also impact-resistant. To practice the performance of the design concept in real-life applications, the developed structures are integrated into 3D printed airplane wing models that withstood collisions without failure. The concept developed here opens new avenues for the development of structural elements that are load-bearing, durable, and impact-resistant at the same time.
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