We investigate the effects of randomly distributed atomic defects on the magnetic properties of graphene nanoribbons with zigzag edges using an extended mean-field Hubbard model. For a balanced defect distribution among the sublattices of the honeycomb lattice in the bulk region of the ribbon, the ground-state antiferromagnetism of the edge states remains unaffected. By analyzing the excitation spectrum, we show that while the antiferromagnetic ground state is susceptible to single spin-flip excitations from edge states to magnetic defect states at low defect concentrations, its overall stability is enhanced with respect to the ferromagnetic phase.TUBITAK (114F331
The discovery of graphene and its remarkable electronic and magnetic properties has initiated great ...
An electronic phase with coexisting magnetic and ferroelectric order is predicted for graphene ribbo...
This document is the unedited Author’s version of a Submitted Work that was subsequently accepted fo...
We investigate the effects of long-range potential fluctuations and electron-electron interactions o...
We study edge state magnetism in graphene nanostructures using a mean field theory of the Hubbard mo...
The rules that govern spin exchange interaction in pristine graphene nanostructures are constrained ...
We address the electronic structure and magnetic properties of vacancies and voids both in graphene ...
We unveil the nature of the structural disorder in bottom-up zigzag graphene nanoribbons along with ...
Since its first controlled fabrication in the laboratory in 2004, graphene has been raising much int...
Mean-field theories have since long predicted edge magnetism in graphene nanoribbons, where the orde...
Using first-principles plane-wave calculations we predict that electronic and magnetic properties of...
Journal ArticleWe investigate the effect of edge defects (vacancies) and impurities (substitutional ...
We investigate spin transport in diffusive graphene nanoribbons with both clean and rough zigzag edg...
Zigzag-edged graphene nanoribbons are antiferromagnetic in cross-edge coupling and unsuitable for sp...
We study the effect of sublattice symmetry breaking on the electronic, magnetic, and transport prope...
The discovery of graphene and its remarkable electronic and magnetic properties has initiated great ...
An electronic phase with coexisting magnetic and ferroelectric order is predicted for graphene ribbo...
This document is the unedited Author’s version of a Submitted Work that was subsequently accepted fo...
We investigate the effects of long-range potential fluctuations and electron-electron interactions o...
We study edge state magnetism in graphene nanostructures using a mean field theory of the Hubbard mo...
The rules that govern spin exchange interaction in pristine graphene nanostructures are constrained ...
We address the electronic structure and magnetic properties of vacancies and voids both in graphene ...
We unveil the nature of the structural disorder in bottom-up zigzag graphene nanoribbons along with ...
Since its first controlled fabrication in the laboratory in 2004, graphene has been raising much int...
Mean-field theories have since long predicted edge magnetism in graphene nanoribbons, where the orde...
Using first-principles plane-wave calculations we predict that electronic and magnetic properties of...
Journal ArticleWe investigate the effect of edge defects (vacancies) and impurities (substitutional ...
We investigate spin transport in diffusive graphene nanoribbons with both clean and rough zigzag edg...
Zigzag-edged graphene nanoribbons are antiferromagnetic in cross-edge coupling and unsuitable for sp...
We study the effect of sublattice symmetry breaking on the electronic, magnetic, and transport prope...
The discovery of graphene and its remarkable electronic and magnetic properties has initiated great ...
An electronic phase with coexisting magnetic and ferroelectric order is predicted for graphene ribbo...
This document is the unedited Author’s version of a Submitted Work that was subsequently accepted fo...