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Rapid Fabrication of Renewable Carbon Fibres by Plasma Arc Discharge and Their Humidity Sensing Properties

机译:通过等离子体电弧放电和湿度传感性能快速制造可再生碳纤维

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摘要

Submicron-sized carbon fibres have been attracting research interest due to their outstanding mechanical and electrical properties. However, the non-renewable resources and their complex fabrication processes limit the scalability and pose difficulties for the utilisation of these materials. Here, we investigate the use of plasma arc technology to convert renewable electrospun lignin fibres into a new kind of carbon fibre with a globular and porous microstructure. The influence of arc currents (up to 60 A) on the structural and morphological properties of as-prepared carbon fibres is discussed. Owing to the catalyst-free synthesis, high purity micro-structured carbon fibres with nanocrystalline graphitic domains are produced. Furthermore, the humidity sensing characteristics of the treated fibres at room temperature (23 °C) are demonstrated. Sensors produced from these carbon fibres exhibit good humidity response and repeatability in the range of 30% to 80% relative humidity (RH) and an excellent sensitivity (0.81/%RH) in the high RH regime (60–80%). These results demonstrate that the plasma arc technology has great potential for the development of sustainable, lignin-based carbon fibres for a broad range of application in electronics, sensors and energy storage.
机译:由于其出色的机电性能,亚微米碳纤维一直吸引了研究兴趣。然而,不可再生资源及其复杂的制造过程限制了可扩展性和对这些材料的利用的困难。在这里,我们研究了使用等离子体弧技术将可再生Electurpul木质素纤维转化为具有球状和多孔微观结构的新种种碳纤维。讨论了电弧电流(最多60a)对制备碳纤维结构和形态学性能的影响。由于不含催化剂的合成,产生具有纳米晶体畴的高纯度微结构碳纤维。此外,对处理过的纤维在室温(23℃)的湿度感测特性进行说明。由这些碳纤维产生的传感器表现出良好的湿度响应和在30%至80%的相对湿度(RH)范围内的可重复性和高RH制度的优异敏感性(0.81 /%RH)(60-80%)。这些结果表明,等离子弧技术具有可持续的木质素基碳纤维的发展潜力,可用于电子,传感器和储能的广泛应用。

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