MWCNT的22 ppm超低渗透阈值

M. Badard, L. Flandin, A. Combessis, A. Allais
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摘要

本文研究了电场对硅油中碳纳米管结构的影响。通过超声波将颗粒分散在液体中并进行稀释,以改变填料的含量。为了探测颗粒结构,在不同电场和时间下对每种填料含量进行了电测量。从一个临界值出发,发现电场既增加了复合材料的电导率,又降低了渗透阈值。这种效果随着时间的推移而进一步增强。惊人的渗透阈值,低至22 ppm已被证实。这一结果归因于填料接触之间的强化效应。更令人惊讶的是,在电场停止后,电导率仍然很高,显示出这种效应的不可逆性质。此外,还建立了一个解析模型,将复合材料的电导率描述为三个参数的函数:纳米管含量、时间和电场。
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A 22 ppm ultralow percolation threshold with MWCNT
This paper describes the effect of electric field on the structuration of carbon nanotubes in silicone oil. The particles have been dispersed in the liquid by ultrasounds and diluted in order to vary the filler content. Electrical measurements were performed under different electric fields and over time on each filler content, in order to probe the particles structuration. From a critical value, the electric field was found to both increase the conductivity of the composite and reduce percolation threshold. This effect is further enhanced with time. Spectacular percolation thresholds, as low as 22 ppm have been evidenced. This result was attributed to a strengthening effect between filler contacts. More surprisingly, the conductivity remained high after the electric field was stopped, showing the irreversible nature of this effect. In addition, an analytical model has been developed to describe the conductivity of the composite as a function of three parameters: nanotubes content, time and electric field.
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