Thin film coating of copper nanoparticles with DC magnetron sputtering via physical vapor deposition

M. Abdullah, N. H. Harun, S. N. Ibrahim, Azimah Abdul Wahab
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引用次数: 1

Abstract

A copper nanoparticle exhibit electromagnetic spectrum that is potential in a biosensor development. It is crucial to design a low cost nanoparticle biosensor that is easily fabricated at precise sizes and density. This paper provides a convenient method for copper nanoparticle deposition on a glass substrate with a magnetron sputtering process known as Physical Vapor Deposition. The main objective is to determine a reliable prediction recipe for various nanometer copper film thicknesses. In this experiment, six glass slides were coated with copper at different sputtering time. The time was varied from 280 sec to 980 sec while Argon gas and DC power were maintained respectively at 80 sccm and 130 watt. Later, the optics based measurement and electron microscope were employed for assessing the copper film thickness. The experiment result indicates different thicknesses were achieved from 35 nm to 45 nm at various sputtering time. A uniform and continuous coating were achieved as magnified by Scanning Electron Microscope. The result is beneficial for evaluating the anisotropy of the copper coating for a nanoscale microbial detection at different spectral wavelength.A copper nanoparticle exhibit electromagnetic spectrum that is potential in a biosensor development. It is crucial to design a low cost nanoparticle biosensor that is easily fabricated at precise sizes and density. This paper provides a convenient method for copper nanoparticle deposition on a glass substrate with a magnetron sputtering process known as Physical Vapor Deposition. The main objective is to determine a reliable prediction recipe for various nanometer copper film thicknesses. In this experiment, six glass slides were coated with copper at different sputtering time. The time was varied from 280 sec to 980 sec while Argon gas and DC power were maintained respectively at 80 sccm and 130 watt. Later, the optics based measurement and electron microscope were employed for assessing the copper film thickness. The experiment result indicates different thicknesses were achieved from 35 nm to 45 nm at various sputtering time. A uniform and continuous coating were achieved as magnified by Scanning Elect...
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物理气相沉积直流磁控溅射制备纳米铜薄膜
铜纳米颗粒表现出电磁波谱,在生物传感器开发中具有潜力。设计一种低成本的纳米粒子生物传感器是至关重要的,它易于在精确的尺寸和密度下制造。本文提供了一种在玻璃衬底上用磁控溅射沉积铜纳米颗粒的简便方法,即物理气相沉积。主要目的是确定各种纳米铜膜厚度的可靠预测配方。在本实验中,在不同的溅射时间对6个玻片进行镀铜。时间在280 ~ 980秒之间变化,氩气和直流功率分别保持在80 sccm和130 w。随后,利用光学测量和电子显微镜对铜膜厚度进行了测量。实验结果表明,在不同的溅射时间下,在35 ~ 45 nm范围内得到了不同的厚度。经扫描电镜放大后,涂层均匀连续。该结果有助于评价铜涂层在不同光谱波长下的各向异性。铜纳米颗粒表现出电磁波谱,在生物传感器开发中具有潜力。设计一种低成本的纳米粒子生物传感器是至关重要的,它易于在精确的尺寸和密度下制造。本文提供了一种在玻璃衬底上用磁控溅射沉积铜纳米颗粒的简便方法,即物理气相沉积。主要目的是确定各种纳米铜膜厚度的可靠预测配方。在本实验中,在不同的溅射时间对6个玻片进行镀铜。时间在280 ~ 980秒之间变化,氩气和直流功率分别保持在80 sccm和130 w。随后,利用光学测量和电子显微镜对铜膜厚度进行了测量。实验结果表明,在不同的溅射时间下,在35 ~ 45 nm范围内得到了不同的厚度。通过扫描选片放大,实现了均匀连续的涂层。
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