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Junction-free Flat Copper Nanofiber Network-based Transparent Heater with High Transparency High Conductivity and High Temperature

机译:高透明性高电导率和高温的无结扁平铜纳米纤维网络透明加热器

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摘要

Transparent conducting electrodes (TCE) are widely used in a variety of applications including displays, light-emitting diodes (LEDS), and solar cells. An important factor in TCE design is active control of the sheet resistance and transparency; as these are inversely proportional, it is essential to develop a technology that can maintain high transparency, while actively controlling sheet resistance, for a range of applications. Here, a nanofiber network was fabricated based on direct electrospinning onto a three-dimensional (3-D) complex substrate; flat metal electrodes without junction resistance were produced using heat treatment and electroless deposition. The fabricated transparent electrode exhibited a transparency of over 90% over the entire visible light range and a sheet resistance of 4.9 ohms/sq. Adhesion between the electrode and substrate was superior to other electrospinning-based transparent electrodes. The performance of the transparent electrode was verified by measurements taken while using the electrode as a heater; a maximum temperature of 210 °C was achieved. The proposed copper nanofiber-based heater electrode offers the advantages of transparency as well as application to complex 3-D surfaces.
机译:透明导电电极(TCE)广泛用于各种应用,包括显示器,发光二极管(LEDS)和太阳能电池。 TCE设计中的一个重要因素是主动控制薄层电阻和透明度。由于它们成反比,因此对于一系列应用而言,开发一种能够在保持主动控制薄层电阻的同时保持高透明度的技术至关重要。在这里,纳米纤维网络是基于直接电纺到三维(3-D)复合衬底上而制成的。通过热处理和化学沉积来生产无结电阻的扁平金属电极。所制造的透明电极在整个可见光范围内显示出超过90%的透明度,并且薄层电阻为4.9 ohms / sq。电极和基材之间的粘附力优于其他基于静电纺丝的透明电极。透明电极的性能通过使用该电极作为加热器时进行的测量来验证。最高温度达到210°C。所提出的基于铜纳米纤维的加热器电极具有透明性以及适用于复杂的3D表面的优点。

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