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溶液相合成以及用包覆的氧化镍阻挡层对氧化铜油墨进行强脉冲光烧结和还原。

Solution phase synthesis and intense pulsed light sintering and reduction of a copper oxide ink with an encapsulating nickel oxide barrier.

作者信息

Jha M, Dharmadasa R, Draper G L, Sherehiy A, Sumanasekera G, Amos D, Druffel T

机构信息

Conn Center for Renewable Energy Research, University of Louisville, Louisville, KY, USA, 40292.

出版信息

Nanotechnology. 2015 May 1;26(17):175601. doi: 10.1088/0957-4484/26/17/175601. Epub 2015 Apr 9.

Abstract

Copper oxide nanoparticle inks sintered and reduced by intense pulsed light (IPL) are an inexpensive means to produce conductive patterns on a number of substrates. However, the oxidation and diffusion characteristics of copper are issues that must be resolved before it can be considered as a viable solution. Nickel can provide a degree of oxidation protection and act as a barrier for the diffusion of copper. In the present study we have for the first time synthesized copper oxide with an encapsulating nickel oxide nanostructure using a solution phase synthesis process in the presence of a surfactant at room temperature. The room temperature process enables us to easily prevent the formation of alloys at the copper-nickel interface. The synthesis results in a simple technique (easily commercializable, tested at a 10 g scale) with highly controllable layer thicknesses on a 20 nm copper oxide nanoparticle. These Cu(2)O@NiO dispersions were then directly deposited onto substrates and sintered/reduced using an IPL source. The sintering technique produces a highly conductive film with very short processing times. Films have been deposited onto silicon, and the copper-nickel structure has shown a lower copper diffusion. The nanostructures and resulting films were characterized using electron and x-ray spectroscopy, and the films' resistivity was measured.

摘要

通过强脉冲光(IPL)烧结和还原的氧化铜纳米颗粒油墨是在多种基板上制作导电图案的一种低成本方法。然而,铜的氧化和扩散特性是在其被视为可行解决方案之前必须解决的问题。镍可以提供一定程度的氧化保护,并作为铜扩散的屏障。在本研究中,我们首次在室温下,在表面活性剂存在的情况下,使用溶液相合成工艺合成了具有封装氧化镍纳米结构的氧化铜。室温工艺使我们能够轻松防止在铜镍界面形成合金。该合成产生了一种简单的技术(易于商业化,已进行10克规模的测试),在20纳米氧化铜纳米颗粒上具有高度可控的层厚度。然后将这些Cu(2)O@NiO分散体直接沉积在基板上,并使用IPL源进行烧结/还原。该烧结技术能在非常短的加工时间内产生高导电薄膜。薄膜已沉积在硅上,并且铜镍结构显示出较低的铜扩散。使用电子和X射线光谱对纳米结构和所得薄膜进行了表征,并测量了薄膜的电阻率。

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