We investigate from first principles the electronic and optical properties of edge-modulated armchair graphene nanoribbons, including both quasiparticle corrections and excitonic effects. Exploiting the oscillating behavior of the ribbon energy gap, we show that minimal width-modulations are sufficient to obtain confinement of both electrons and holes, thus forming optically active quantum dots with unique properties, such as the coexistence of dotlike and extended excitations and the fine tunability of optical spectra, with great potential for optoelectronic applications
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
Based on first-principles calculations we predict that periodically repeated junctions of armchair g...
We investigate from first principles the electronic and optical properties of edge-modulated armchai...
We investigate from first principles the electronic and optical properties of edge-modulated armchai...
We explore the implementation of specific optical properties of armchair graphene nanoribbons (AGNRs...
We explore the implementation of specific optical properties of armchair graphene nanoribbons (AGNRs...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
Narrow graphene nanoribbons exhibit substantial electronic bandgaps and optical properties fundament...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
Narrow graphene nanoribbons exhibit substantial electronic bandgaps and optical properties fundament...
Graphene quantum dots (GQDs) hold great promise for applications in electronics, optoelectronics, an...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
Graphene is a famous truly two-dimensional (2D) material, possessing a cone-like energy structure ne...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
Based on first-principles calculations we predict that periodically repeated junctions of armchair g...
We investigate from first principles the electronic and optical properties of edge-modulated armchai...
We investigate from first principles the electronic and optical properties of edge-modulated armchai...
We explore the implementation of specific optical properties of armchair graphene nanoribbons (AGNRs...
We explore the implementation of specific optical properties of armchair graphene nanoribbons (AGNRs...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
Narrow graphene nanoribbons exhibit substantial electronic bandgaps and optical properties fundament...
We investigate from first principles the optoelectronic properties of nanometer-sized armchair graph...
Narrow graphene nanoribbons exhibit substantial electronic bandgaps and optical properties fundament...
Graphene quantum dots (GQDs) hold great promise for applications in electronics, optoelectronics, an...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
Graphene is a famous truly two-dimensional (2D) material, possessing a cone-like energy structure ne...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
The ability to define an off state in logic electronics is the key ingredient that is impossible to ...
Based on first-principles calculations we predict that periodically repeated junctions of armchair g...