Graphene has promised many novel applications in nanoscale electronics and sustainable energy due to its novel electronic properties. Computational exploration of electronic functionality and how it varies with architecture and doping presently runs ahead of experimental synthesis yet provides insights into types of structures that may prove profitable for targeted experimental synthesis and characterization. We present here a summary of our understanding on the important aspects of dimension, band gap, defect, and interfacial engineering of graphene based on state-of-the-art ab initio approaches. Some most recent experimental achievements relevant for future theoretical exploration are also covered
Size and chemical functionalization dependant optical band gaps in graphene family nanomaterials wer...
Some of the most intriguing properties of graphene are predicted for speci\ufb01cally designed nanos...
Graphene nanoribbons (GNRs) have recently attracted great interest because of their novel electronic...
Graphene has promised many novel applications in nanoscale electronics and sustainable energy due to...
This dissertation research is focused on first principles studies of graphene and single organic mol...
The use of graphene in electronic devices requires a band gap, which can be achieved by creating nan...
Motivated by the state of the art method for fabricating high-density periodic nanoscale defects in ...
The structure of carbon based nano-scale materials is extremely diverse at the molecular level and i...
Graphene is foreseen to be the basis of future electronics owing to its ultra thin structure, extrem...
This thesis includes work done on graphene-based materials, examining their unique electronic proper...
An attractive strategy to generate semiconducting graphene layers is delineating rows of sp3 defects...
The carbon allotrope graphene is the first member of a new family of two-dimensional materials which...
The physical and chemical properties of decorated graphene and graphene ribbons, single-layer III-V ...
Some of the most intriguing properties of graphene are predicted for specifically designed nanostruc...
The atomic edges of graphene nanoribbons with anomalous geometry structure were very recently observ...
Size and chemical functionalization dependant optical band gaps in graphene family nanomaterials wer...
Some of the most intriguing properties of graphene are predicted for speci\ufb01cally designed nanos...
Graphene nanoribbons (GNRs) have recently attracted great interest because of their novel electronic...
Graphene has promised many novel applications in nanoscale electronics and sustainable energy due to...
This dissertation research is focused on first principles studies of graphene and single organic mol...
The use of graphene in electronic devices requires a band gap, which can be achieved by creating nan...
Motivated by the state of the art method for fabricating high-density periodic nanoscale defects in ...
The structure of carbon based nano-scale materials is extremely diverse at the molecular level and i...
Graphene is foreseen to be the basis of future electronics owing to its ultra thin structure, extrem...
This thesis includes work done on graphene-based materials, examining their unique electronic proper...
An attractive strategy to generate semiconducting graphene layers is delineating rows of sp3 defects...
The carbon allotrope graphene is the first member of a new family of two-dimensional materials which...
The physical and chemical properties of decorated graphene and graphene ribbons, single-layer III-V ...
Some of the most intriguing properties of graphene are predicted for specifically designed nanostruc...
The atomic edges of graphene nanoribbons with anomalous geometry structure were very recently observ...
Size and chemical functionalization dependant optical band gaps in graphene family nanomaterials wer...
Some of the most intriguing properties of graphene are predicted for speci\ufb01cally designed nanos...
Graphene nanoribbons (GNRs) have recently attracted great interest because of their novel electronic...