超材料
材料科学
格子(音乐)
灵敏度(控制系统)
声学
控制重构
声学超材料
反向
计算机科学
物理
体积模量
模数
航程(航空)
压力传感器
光电子学
单调函数
晶格常数
信号(编程语言)
纳米技术
作者
Feifan Yang,Haoming Yang,Guangzu Zhang,Shiyi Xu,Lin Zhu,Xuetian Gong,Lulu Liu,Fangyuan Luo,Shuhan Xu,Chunlei Liu,Jianmin Wu,Shenglin Jiang,Kanghua Li,Lijie Dong,Xin Chen,Sulin Zhang,Yao Zhang,Qing Wang
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2026-06-11
卷期号:392 (6803): 1177-1182
被引量:2
标识
DOI:10.1126/science.aeb3456
摘要
Mechanical metamaterials exploit precise control of unit-cell geometry and their macroscopic organization to realize unusual properties. Expanding the capabilities of mechanical metamaterials to incorporate additional functionality remains a challenge. We describe 3D-printed metamaterials embedded with molecular ferroelectrics for use as self-powered pressure sensors. Our gradient lattice design allows for adaptive reconfiguration and controlled deformation-mode transitions, yielding a synergy of low modulus and high load-bearing capacity alongside a monotonic mechanical load-electrical signal response. Furthermore, we implement a modulus gradient in the metamaterials to enhance sensitivity in low-loading regions and extend the detection range across six orders of magnitude. With a combination of high sensitivity and broad detection range, the dual-gradient metamaterials overcome the limitations imposed by the inverse relationships in existing sensors.
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