材料科学
耐久性
磁性
多孔性
脆性
压缩性
多孔介质
层状结构
碳纤维
微观结构
复合材料
智能材料
纳米技术
振动
声学
航空航天工程
工程类
物理
复合数
量子力学
作者
Huai‐Ling Gao,Zeyu Wang,Chen Cui,Jia-Zheng Bao,YinBo Zhu,Jun Xia,Shao‐Meng Wen,Huan Wu,Shu‐Hong Yu
标识
DOI:10.1002/adma.202102724
摘要
Abstract Porous carbon materials demonstrate extensive applications for their attractive characteristics. Mechanical flexibility is an essential property guaranteeing their durability. After decades of research efforts, compressive brittleness of porous carbon materials is well resolved. However, reversible stretchability remains challenging to achieve due to the intrinsically weak connections and fragile joints of the porous carbon networks. Herein, it is presented that a porous all‐carbon material achieving both elastic compressibility and stretchability at large strain from −80% to 80% can be obtained when a unique long‐range lamellar multi‐arch microstructure is introduced. Impressively, the porous all‐carbon material can maintain reliable structural robustness and durability under loading condition of cyclic compressing–stretching process, similar to a real metallic spring. The unique performance renders it as a promising platform for making smart vibration and magnetism sensors, even capable of operating at extreme temperatures. Furthermore, this study provides valuable insights for creating highly stretchable and compressible porous materials from other neat inorganic components for diverse applications in future.
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