A novel electrochemical synthesis route for copper nanowire formation

Cindy Schmadicke, M. Potschke, L. Renner, G. Cuniberti
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引用次数: 1

Abstract

We present an alternative electrochemical synthesis process of copper nanowires from aqueous solution. The common widespread methods for the fabrication of copper nanowires suffer a number of drawbacks such as the complexity of procedures steps, the resulting nanowires usually are of short length and have a nonlinear morphology. We address these shortcomings with a one-step method that allows preparing copper nanowires fast and with a high surface-to-volume ratio. The grown nanowires are already connected to the electrodes without further processing. We found that the nanowires diameter can be controlled by the frequency of the applied alternating voltage. Furthermore, we analyze the influence of the electric field profile on the morphology of the nanowires. Using an optimized protocol we are able to grow copper nanowires with a diameter of 100 nm and a length of up to several micrometers that exhibited ohmic behavior. Future uses of the nanowires after their oxidation are sensor applications, particularly gas sensors.
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一种新的形成铜纳米线的电化学合成路线
提出了一种水溶液中铜纳米线的电化学合成方法。目前广泛采用的铜纳米线制备方法存在工艺步骤复杂、纳米线长度短、形貌非线性等缺点。我们用一种一步法解决了这些缺点,这种方法可以快速制备铜纳米线,并且具有高表面体积比。生长出来的纳米线已经连接到电极上,无需进一步加工。我们发现纳米线的直径可以通过施加交流电压的频率来控制。此外,我们还分析了电场分布对纳米线形貌的影响。使用优化的方案,我们能够生长直径为100纳米,长度可达几微米的铜纳米线,并表现出欧姆行为。氧化后的纳米线的未来用途是传感器,特别是气体传感器。
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