We review the physical mechanisms that lead toward the conversion of graphene into its fully hydrogenated counterpart, which is a material that possesses properties closer to those of diamond than graphene. These are discussed from a theoretical perspective, i.e., from calculations based on density functional theory. We first discuss stability trends in small clusters of adsorbed hydrogen, as well as surface structure and concurrent reactivity changes for graphene one-face and two-face hydrogenation. Effects of adsorbed hydrogen on graphene electronic states, which are essential to adsorbed hydrogen structure discrimination, are also discussed
Abstract. We present a systematic ab initio study of atomic hydrogen adsorption on graphene. The cha...
A combined density functional theory and molecular dynamics approach is employed to study modificati...
A combined density functional theory and molecular dynamics approach is employed to study modificati...
Density functional calculations of electronic structure, total energy, structural distortions, and m...
Ripples of graphene are known to manipulate electronic and hydrogenation properties of graphitic mat...
Contains fulltext : 34643.pdf (preprint version ) (Closed access)Density functiona...
To investigate the microscopic mechanism for the wet-chemical hydrogenation of graphene, first princ...
Structural stability and hydrogen adsorption capacity are two key quantities in evaluating the poten...
To investigate the microscopic mechanism for the wet-chemical hydrogenation of graphene, first princ...
Hydrogen is frequently touted as the "fuel of the future" because of its huge potential as clean ene...
Using density-functional theory, we study the adsorption and reaction of hydrogen and single-sided g...
We present a systematic ab initio study of atomic hydrogen adsorption on graphene. The characteristi...
In this work, we performed QM/MD simulations to investigate the hydrogenation process on quasi-free-...
Using density functional theory calculations, we have investigated a strategy for the facile hydroge...
Motivated by the controversial experimental conclusions on the affinity of few layer graphenes (FLGs...
Abstract. We present a systematic ab initio study of atomic hydrogen adsorption on graphene. The cha...
A combined density functional theory and molecular dynamics approach is employed to study modificati...
A combined density functional theory and molecular dynamics approach is employed to study modificati...
Density functional calculations of electronic structure, total energy, structural distortions, and m...
Ripples of graphene are known to manipulate electronic and hydrogenation properties of graphitic mat...
Contains fulltext : 34643.pdf (preprint version ) (Closed access)Density functiona...
To investigate the microscopic mechanism for the wet-chemical hydrogenation of graphene, first princ...
Structural stability and hydrogen adsorption capacity are two key quantities in evaluating the poten...
To investigate the microscopic mechanism for the wet-chemical hydrogenation of graphene, first princ...
Hydrogen is frequently touted as the "fuel of the future" because of its huge potential as clean ene...
Using density-functional theory, we study the adsorption and reaction of hydrogen and single-sided g...
We present a systematic ab initio study of atomic hydrogen adsorption on graphene. The characteristi...
In this work, we performed QM/MD simulations to investigate the hydrogenation process on quasi-free-...
Using density functional theory calculations, we have investigated a strategy for the facile hydroge...
Motivated by the controversial experimental conclusions on the affinity of few layer graphenes (FLGs...
Abstract. We present a systematic ab initio study of atomic hydrogen adsorption on graphene. The cha...
A combined density functional theory and molecular dynamics approach is employed to study modificati...
A combined density functional theory and molecular dynamics approach is employed to study modificati...