材料科学
石墨烯
碳纳米管
复合材料
导电体
弹性体
多孔性
电导率
弯曲
氧化物
纳米技术
碳纤维
基质(水族馆)
复合数
物理化学
化学
冶金
地质学
海洋学
作者
Mengting Chen,Ling Zhang,Shasha Duan,Shilong Jing,Hao Jiang,Chunzhong Li
标识
DOI:10.1002/adfm.201401886
摘要
Here, a novel and facile method is reported for manufacturing a new stretchable conductive material that integrates a hybrid three dimensional (3D) carbon nanotube (CNT)/reduced graphene oxide (rGO) network with a porous poly(dimethylsiloxane) (p‐PDMS) elastomer (pPCG). This reciprocal architecture not only alleviates the aggregation of carbon nanofillers but also significantly improves the conductivity of pPCG under large strains. Consequently, the pPCG exhibits high electrical conductivity with a low nanofiller loading (27 S m −1 with 2 wt% CNTs/graphene) and a notable retention capability after bending and stretching. The simulation of the mechanical properties of the p‐PDMS model demonstrates that an extremely large applied strain ( ε appl ) can be accommodated through local rotations and bending of cell walls. Thus, after a slight decrease, the conductivity of pPCG can continue to remain constant even as the strain increases to 50%. In general, this architecture of pPCG with a combination of a porous polymer substrate and 3D carbon nanofiller network possesses considerable potential for numerous applications in next‐generation stretchable electronics.
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