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Molybdenum carbide nanowires: facile synthesis, a new hybrid phase and their use as transparent electrodes

机译:碳化钼纳米线:容易合成,新的杂交相和作为透明电极的用途

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摘要

Several synthetic routes exist for the production of bulk molybdenum carbides whereas production of larger quantities of different molybdenum carbide phases in the form of nanowires and nanowire networks is still challenging. Here we report a novel route for synthesis of molybdenum carbide nanowires by carburisation of Mo6S2I8 nanowire bundles. Gram quantities of molybdenum carbide nanowires composed of mainly MoC and Mo2C phases were obtained and further reduced to single phase Mo2C nanowires. By controlling the reaction conditions during the transformation, we can modify the ratio between MoC and Mo2C phases in nanowires and produce a novel hybrid inorganic/organic nanomaterial that we identified as molybdenum carbide nanowires densely covered with carbon nanofibres. We used the same approach on nanowire networks and demonstrate a new use of molybdenum carbide in the form of nanowire networks as transparent electrodes. The sheet resistance of such robust and air-stable electrodes is around 1050 Omega sq(-1) at room temperature and their transmittance between 93% and 95% in the range of 200-900 nm. The electrodes are thus suitable for electro-optic applications, especially where high transparency in the UV region is required.
机译:几个合成途径用于生产批量碳化钼存在而产生更大的量在纳米线和纳米线网络形式的不同钼碳化物相的仍然是具有挑战性的。在这里,我们通过Mo6S2I8纳米线束的渗碳报告为碳化钼纳米线的合成的新的路线。得到主要的MoC和Mo2C的相构成的碳化钼纳米线的克量和进一步减少到单相的Mo2C纳米线。通过控制变换过程中的反应条件下,我们可以修改在纳米线的MoC和Mo2C的相之间的比例,并产生新的杂化无机/有机纳米材料,我们鉴定为密被碳纳米纤维碳化钼纳米线。我们使用纳米线上网络中的相同的方法,并证明在纳米线网络作为透明电极的形式的新用途碳化钼。这样坚固和空气稳定的电极的薄层电阻大约是1050平方欧米茄(-1),在室温和它们在200-900纳米范围内93%和95%之间的透射率。电极,因此适合于电光应用,特别是其中需要在UV区域高的透明度。

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  • 来源
    《RSC Advances》 |2016年第93期|共7页
  • 作者单位

    J Stefan Inst Jamova 39 SI-1000 Ljubljana Slovenia;

    J Stefan Inst Jamova 39 SI-1000 Ljubljana Slovenia;

    J Stefan Inst Jamova 39 SI-1000 Ljubljana Slovenia;

    J Stefan Inst Jamova 39 SI-1000 Ljubljana Slovenia;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 化学;
  • 关键词

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