The friction of graphene on mica was studied using lateral force microscopy. We observed that intercalation of alcohol molecules significantly increases the friction of graphene, as compared to water. An increase of 1.8, 2.4, and 5.9 times in friction between the atomic force microscopy tip and single-layer graphene was observed for methanol, ethanol, and 2-propanol, respectively. Moreover, the friction of graphene is found to be higher for single-layer graphene than for multilayer graphene. We attribute the increase in friction to the additional vibrational modes of alcohol molecules. The significant variation of the frictional characteristics of graphene at the nanoscale by altering the intercalant could open up applications for the next...
A pressing financial and environmental challenge is the impact of friction and wear on energy usage,...
Single asperity friction experiments using atomic force microscopy (AFM) have been conducted on chem...
The tribological properties of two-dimensional (2D) atomic layers are quite different from three-dim...
The friction of graphene on mica was studied using lateral force microscopy. We observed that interc...
Recently, the tribological properties of graphene have been intensively examined for potential appli...
While mechanical and frictional properties of graphene in air have been extensively studied, graphen...
While mechanical and frictional properties of graphene in air have been extensively studied, graphen...
Common experience shows that friction converts mechanical energy into heat. The first part of this p...
The aim of this study is to understand the fundamental tribological interactions of model contacts d...
Graphite is widely used as a solid lubricant due to its layered structure, which enables ultralow fr...
The lubricating properties of water have been discussed extensively for millennia. Water films can e...
We report on the frictional force between an SiN tip and graphene/graphite surfaces using lateral fo...
Nanoscale friction often exhibits hysteresis when load is increased (loading) and then decreased (un...
Atomically thin graphene is an ideal model system for studying nanoscale friction due to its intrins...
The friction of graphene on various substrates, such as SiO2, h-BN, bulk-like graphene, and mica, wa...
A pressing financial and environmental challenge is the impact of friction and wear on energy usage,...
Single asperity friction experiments using atomic force microscopy (AFM) have been conducted on chem...
The tribological properties of two-dimensional (2D) atomic layers are quite different from three-dim...
The friction of graphene on mica was studied using lateral force microscopy. We observed that interc...
Recently, the tribological properties of graphene have been intensively examined for potential appli...
While mechanical and frictional properties of graphene in air have been extensively studied, graphen...
While mechanical and frictional properties of graphene in air have been extensively studied, graphen...
Common experience shows that friction converts mechanical energy into heat. The first part of this p...
The aim of this study is to understand the fundamental tribological interactions of model contacts d...
Graphite is widely used as a solid lubricant due to its layered structure, which enables ultralow fr...
The lubricating properties of water have been discussed extensively for millennia. Water films can e...
We report on the frictional force between an SiN tip and graphene/graphite surfaces using lateral fo...
Nanoscale friction often exhibits hysteresis when load is increased (loading) and then decreased (un...
Atomically thin graphene is an ideal model system for studying nanoscale friction due to its intrins...
The friction of graphene on various substrates, such as SiO2, h-BN, bulk-like graphene, and mica, wa...
A pressing financial and environmental challenge is the impact of friction and wear on energy usage,...
Single asperity friction experiments using atomic force microscopy (AFM) have been conducted on chem...
The tribological properties of two-dimensional (2D) atomic layers are quite different from three-dim...