We study theoretically the deposition of few layer graphene sheets onto a grooved substrate incorporating adhesion between substrate and sheet. We develop a model to understand the equilibrium of the sheet allowing for partial conformation of sheet to substrate. This model gives physical insight into recent observations of snap-through from flat to conforming states and emphasizes the crucial role of substrate shape in determining the nature of this transition. Our analytical results are consistent with numerical simulations using a van der Waals-like interaction. Finally, we propose a substrate shape that should exhibit a continuous, rather than snap-through, transition. © 2012 American Institute of Physics
Graphene grown by chemical vapor deposition can be used as the conductive channel in metal oxide sem...
A graphene layer on a transition-metal (TM) surface can be either corrugated or flat, depending on t...
The friction of graphene on various substrates, such as SiO2, h-BN, bulk-like graphene, and mica, wa...
Adhesive contacts between graphene sheets and corrugated surfaces are investigated. It is found that...
The adhesion of a 2D material to a substrate is facilitated by the van der Waals (vdW) interactions,...
Abstract We determine the graphene morphology regu-lated by substrates with herringbone and checkerb...
Graphene deposited on planar surfaces often exhibits sharp and localized folds delimiting seemingly ...
We formulate a nonlinear continuum model of a graphene sheet supported by a flat rigid substrate. Th...
Graphene deposited over a trench has been studied in the context of nanomechanical resonators, where...
We study the pinning of a two-dimensional membrane to a patterned substrate within elastic theory bo...
Graphene deposited over a trench has been studied in the context of nanomechanical resonators, where...
Abstract—Here we show by molecular dynamics that graphene could be utilized as dry adhesive interact...
The buckling of graphene sheets on substrates can significantly degrade their performance in materia...
ABSTRACT: We develop a continuum model that describes the elastic bending of a graphene sheet intera...
Two interfacial failure modes, shear sliding and buckling, of graphene on a flexible substrate subje...
Graphene grown by chemical vapor deposition can be used as the conductive channel in metal oxide sem...
A graphene layer on a transition-metal (TM) surface can be either corrugated or flat, depending on t...
The friction of graphene on various substrates, such as SiO2, h-BN, bulk-like graphene, and mica, wa...
Adhesive contacts between graphene sheets and corrugated surfaces are investigated. It is found that...
The adhesion of a 2D material to a substrate is facilitated by the van der Waals (vdW) interactions,...
Abstract We determine the graphene morphology regu-lated by substrates with herringbone and checkerb...
Graphene deposited on planar surfaces often exhibits sharp and localized folds delimiting seemingly ...
We formulate a nonlinear continuum model of a graphene sheet supported by a flat rigid substrate. Th...
Graphene deposited over a trench has been studied in the context of nanomechanical resonators, where...
We study the pinning of a two-dimensional membrane to a patterned substrate within elastic theory bo...
Graphene deposited over a trench has been studied in the context of nanomechanical resonators, where...
Abstract—Here we show by molecular dynamics that graphene could be utilized as dry adhesive interact...
The buckling of graphene sheets on substrates can significantly degrade their performance in materia...
ABSTRACT: We develop a continuum model that describes the elastic bending of a graphene sheet intera...
Two interfacial failure modes, shear sliding and buckling, of graphene on a flexible substrate subje...
Graphene grown by chemical vapor deposition can be used as the conductive channel in metal oxide sem...
A graphene layer on a transition-metal (TM) surface can be either corrugated or flat, depending on t...
The friction of graphene on various substrates, such as SiO2, h-BN, bulk-like graphene, and mica, wa...