Nanoscale · 2017 · 228 citations · 79 references
Natural SciencesMaterials EngineeringMaterials ScienceElectronic MaterialsNanomaterialsNanotechnologyCarbon NanomaterialsHybrid NanomaterialsNanocompositesNanotubesPolymer NanocompositesPolymeric NanomaterialsCarbon Nanotube Electrical ConductivityElectrical Conductivity EnhancementElectrical Conductivity Of NanotubesPercolationPercolation BehaviorPiezoresistive MaterialsPiezoresistive SensingPiezoresistive Sensors
was achieved for the conventional samples with 0.2 vol% MWCNTs. The gauge factor GF of the self-segregated samples was 7.4-fold that of the conventional samples at 30% compression strain. Furthermore, the self-segregated samples also showed higher compression modulus and strength as compared to the conventional samples. These enhanced properties were attributed to the construction of 3D self-segregated structures, concentrated distribution of MWCNTs, and strong interfacial interaction between the segregated phase and the continuous phase with chemical bonds formed during the second curing process. These self-segregated structures provide a new insight into the fabrication of elastomers with high electrical conductivity and piezoresistive sensitivity for flexible force-sensitive materials.
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<i>Introduction to Percolation Theory</i>
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