Research paperComputational DFTTheoreticalTwisted nanoporous graphene/graphene bilayers: electronic decoupling and chiral currentsXabier Diaz de Cerio, Aleksander Bach Lorentzen, Mads Brandbyge, Aran Garcia-Lekue2024·10.13039/501100011033·arXiv:2408.05202AbstractThe electronic and transport properties of nanoporous graphene/graphene bilayers are studied as a function of interlayer twist angle using an atomistic tight-binding model combined with non-equilibrium Green’s functions. The work shows strong coupling and Talbot-like chiral current patterns at small twist angles, progressive decoupling at larger angles, and resonant density-of-states features that could be probed by scanning tunneling microscopy.Read more
Twisted nanoporous graphene/graphene bilayer at zero twist angle (AB/Bernal stacking reference).2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 1.92° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 5.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 10.53° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 21.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Research paperComputational DFTTheoreticalTwisted nanoporous graphene/graphene bilayers: electronic decoupling and chiral currentsXabier Diaz de Cerio, Aleksander Bach Lorentzen, Mads Brandbyge, Aran Garcia-Lekue2024·10.13039/501100011033·arXiv:2408.05202AbstractThe electronic and transport properties of nanoporous graphene/graphene bilayers are studied as a function of interlayer twist angle using an atomistic tight-binding model combined with non-equilibrium Green’s functions. The work shows strong coupling and Talbot-like chiral current patterns at small twist angles, progressive decoupling at larger angles, and resonant density-of-states features that could be probed by scanning tunneling microscopy.Read more
Twisted nanoporous graphene/graphene bilayer at zero twist angle (AB/Bernal stacking reference).2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 1.92° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 5.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 10.53° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 21.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Research paperComputational DFTTheoreticalTwisted nanoporous graphene/graphene bilayers: electronic decoupling and chiral currentsXabier Diaz de Cerio, Aleksander Bach Lorentzen, Mads Brandbyge, Aran Garcia-Lekue2024·10.13039/501100011033·arXiv:2408.05202AbstractThe electronic and transport properties of nanoporous graphene/graphene bilayers are studied as a function of interlayer twist angle using an atomistic tight-binding model combined with non-equilibrium Green’s functions. The work shows strong coupling and Talbot-like chiral current patterns at small twist angles, progressive decoupling at larger angles, and resonant density-of-states features that could be probed by scanning tunneling microscopy.Read more
Twisted nanoporous graphene/graphene bilayer at zero twist angle (AB/Bernal stacking reference).2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 1.92° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 5.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 10.53° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 21.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Research paperComputational DFTTheoreticalTwisted nanoporous graphene/graphene bilayers: electronic decoupling and chiral currentsXabier Diaz de Cerio, Aleksander Bach Lorentzen, Mads Brandbyge, Aran Garcia-Lekue2024·10.13039/501100011033·arXiv:2408.05202AbstractThe electronic and transport properties of nanoporous graphene/graphene bilayers are studied as a function of interlayer twist angle using an atomistic tight-binding model combined with non-equilibrium Green’s functions. The work shows strong coupling and Talbot-like chiral current patterns at small twist angles, progressive decoupling at larger angles, and resonant density-of-states features that could be probed by scanning tunneling microscopy.Read more
Twisted nanoporous graphene/graphene bilayer at zero twist angle (AB/Bernal stacking reference).2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 1.92° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 5.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 10.53° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand
Twisted nanoporous graphene/graphene bilayer at 21.78° twist angle.2 propertiesSimulatedCStudied MaterialCStudied MaterialExpand