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Plasma-assisted friction control of 2D MoS(2)made by atomic layer deposition

机译:由原子层沉积制成的2D MOS(2)的等离子体辅助摩擦控制

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摘要

MoS(2)films as an excellent solid lubricating film can significantly decrease the friction and adhesion of nanoelectromechanical systems. Atomic layer deposition (ALD) as a surface-controlled method provides a flexible way to apply MoS(2)to complex surfaces. In this work, MoS(2)film deposited by ALD on substrates by a plasma-assisted process is used to study controlled friction. Firstly, layer-controlled MoS(2)films were fabricated by ALD from one to five layers. The friction decreases as the number of layers increases. Furthermore, the average friction force of MoS(2)deposited on Al(2)O(3)substrates treated by plasma for 10 s with one ALD cycle has the lowest value. Functional groups on the substrate surface can be obtained by plasma treatment, which can control the growth of the first layer of MoS(2)in ALD so that the frictional characteristics of monolayer MoS(2)can be controlled. Finally, the effect of plasma treatment on ALD growth at the intermediate stage of MoS(2)is relatively weak. Only the monolayer MoS(2)treated by plasma can affect the growth of MoS(2)by ALD. Therefore, the controlling effect of plasma treatment on the frictional characteristics of MoS(2)deposited by ALD mainly occurs at the initial stage of growth.
机译:MOS(2)作为优异的固体润滑膜的薄膜可以显着降低纳米机电系统的摩擦和粘附性。作为表面控制方法的原子层沉积(ALD)提供了将MOS(2)施加到复杂表面的柔性方法。在这项工作中,通过等离子体辅助工艺在基板上沉积的MOS(2)薄膜用于研究受控摩擦。首先,通过从一到五层的ALD制造层控制的MOS(2)膜。随着层数的增加,摩擦降低。此外,沉积在通过血浆处理10s的Al(2)O(3)底物上沉积的MOS(2)的平均摩擦力具有10s,具有一个ALD循环的最低值。基材表面上的官能团可以通过等离子体处理获得,其可以控制ALD中第一MOS(2)的生长,从而可以控制单层MOS(2)的摩擦特性。最后,等离子体处理对MOS(2)中间阶段ALD生长的影响相对较弱。只有等离子体处理的单层MOS(2)只能影响ALD的MOS(2)的生长。因此,等离子体处理对ALD沉积的MOS(2)的摩擦特性的控制效果主要发生在生长的初始阶段。

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