Present topological study focuses on the formation mechanism of clusters of vacancies in graphenic layers. An original effect that explains both accumulation and self-healing of vacancies represents the original outcome of our investigation whose results, based on the long-range topological properties of the honeycomb lattices, are applicable to defective graphene sheets and general honeycomb lattices when other elements other than carbon are present. Some speculations about the role of long-range bondonic states in such a kind of lattices contribute to the understanding of electronic and transport properties in graphenic nanomaterials.status: publishe
© 2017 IOP Publishing Ltd.AA-stacked graphite and closely related structures, where carbon atoms are...
A large and growing number of theoretical papers report the possible role of defects and heteroatoms...
High temperature annealing is the only method known to date that allows the complete repair of a def...
This work advances the modeling of bondonic effects on graphenic and honeycomb structures, with an o...
Cataloged from PDF version of article.Self-healing mechanisms of vacancy defects in graphene and sil...
Cataloged from PDF version of article.Motivated by the state of the art method for fabricating high-...
Graphenoids are nanometer-sized flakes that share the same honeycomb framework of graphene. Novel ch...
The evolution of multiple vacancies (Vns) in graphene under electron irradiation (EI) was explored s...
We present a survey of the effect of vacancies on quantum transport in graphene, exploring conductio...
Graphene is a two dimensional material made of single layer of carbon atoms arranging into a honeyc...
Various types of multiple vacancies (MVs) in graphene nanoribbons (GNRs) and graphene are explored b...
We study the properties of localized vibrational modes associated with structural defects in a sheet...
Research on graphene has revealed remarkable phenomena arising in the honeycomb lattice. However, th...
The mechanical and electrical properties of graphite and related materials such as multilayer graphe...
Specific types of spatial defects or potentials can turn monolayer graphene into a topological mater...
© 2017 IOP Publishing Ltd.AA-stacked graphite and closely related structures, where carbon atoms are...
A large and growing number of theoretical papers report the possible role of defects and heteroatoms...
High temperature annealing is the only method known to date that allows the complete repair of a def...
This work advances the modeling of bondonic effects on graphenic and honeycomb structures, with an o...
Cataloged from PDF version of article.Self-healing mechanisms of vacancy defects in graphene and sil...
Cataloged from PDF version of article.Motivated by the state of the art method for fabricating high-...
Graphenoids are nanometer-sized flakes that share the same honeycomb framework of graphene. Novel ch...
The evolution of multiple vacancies (Vns) in graphene under electron irradiation (EI) was explored s...
We present a survey of the effect of vacancies on quantum transport in graphene, exploring conductio...
Graphene is a two dimensional material made of single layer of carbon atoms arranging into a honeyc...
Various types of multiple vacancies (MVs) in graphene nanoribbons (GNRs) and graphene are explored b...
We study the properties of localized vibrational modes associated with structural defects in a sheet...
Research on graphene has revealed remarkable phenomena arising in the honeycomb lattice. However, th...
The mechanical and electrical properties of graphite and related materials such as multilayer graphe...
Specific types of spatial defects or potentials can turn monolayer graphene into a topological mater...
© 2017 IOP Publishing Ltd.AA-stacked graphite and closely related structures, where carbon atoms are...
A large and growing number of theoretical papers report the possible role of defects and heteroatoms...
High temperature annealing is the only method known to date that allows the complete repair of a def...