Title : Effect of Atomic Corrugation on Adhesion and Friction: A Model Study with Graphene Step Edges.

Pub. Date : 2019 Nov 7

PMID : 31584830






4 Functional Relationships(s)
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1 Both atomic force microscopy (AFM) and molecular dynamics (MD) simulations showed that the adhesion force needed to separate a silica tip from a graphene step edge increases as the side wall of the tip approaches the step edge when the tip is on the lower terrace and decreases as the tip ascends or descends the step edge. Graphite TOR signaling pathway regulator Homo sapiens
2 Both atomic force microscopy (AFM) and molecular dynamics (MD) simulations showed that the adhesion force needed to separate a silica tip from a graphene step edge increases as the side wall of the tip approaches the step edge when the tip is on the lower terrace and decreases as the tip ascends or descends the step edge. Graphite TOR signaling pathway regulator Homo sapiens
3 Both atomic force microscopy (AFM) and molecular dynamics (MD) simulations showed that the adhesion force needed to separate a silica tip from a graphene step edge increases as the side wall of the tip approaches the step edge when the tip is on the lower terrace and decreases as the tip ascends or descends the step edge. Graphite TOR signaling pathway regulator Homo sapiens
4 Both atomic force microscopy (AFM) and molecular dynamics (MD) simulations showed that the adhesion force needed to separate a silica tip from a graphene step edge increases as the side wall of the tip approaches the step edge when the tip is on the lower terrace and decreases as the tip ascends or descends the step edge. Graphite TOR signaling pathway regulator Homo sapiens