The interaction between electrons and plasmons in trilayer graphene is investigated within the Overhauser approach resulting in the "plasmaron" quasiparticle. This interaction is cast into a field theoretical problem, and its effect on the energy spectrum is calculated using improved Wigner-Brillouin perturbation theory. The plasmaron spectrum is shifted with respect to the bare electron spectrum by Delta E(k) similar to 150-200 meV for ABC stacked trilayer graphene and for ABA trilayer graphene by Delta E(k) similar to 30-150 meV [Delta E(k) similar to 1-5 meV] for the hyperbolic (linear) part of the spectrum. The shift in general increases with the electron concentration ne and electron momentum. The dispersion of plasmarons is more prono...
A hallmark of graphene is its unusual conical band structure that leads to a zero-energy band gap at...
Electron-electron interaction is fundamental in condensed matter physics and can lead to composite q...
Prompted by the recent surge of interest in integrating atomically thin layers of conducting materi...
The interaction between electrons and plasmons in trilayer graphene is investigated within the Overh...
The relation between the energy and momentum of plasmarons in bilayer graphene is investigated withi...
The many-body correction to the band structure of a quasi-free-standing graphene layer is obtained w...
The Coulomb interaction and the correlation of a remote electron with a single layer of graphene is ...
We have investigated the plasmon dispersion in quasi-free-standing monolayer graphene (QFMLG) and ep...
We present several applications of the layered electron gas model to electron energy loss spectrosco...
Electron-plasmon coupling in graphene has been shown recently to give rise to a “plasmaron” quasipar...
A hallmark of graphene is its unusual conical band structure that leads to a zero-energy band gap at...
The plasmon structure of intrinsic and extrinsic bilayer graphene is investigated in the framework o...
We predict the existence of low-frequency nonlocal plasmons at the vacuum-surface interface of a sup...
Graphene is a two-dimensional honeycomb lattice of carbon atoms. Since it is experimentally isolated...
Collective plasma excitations of optically dressed Dirac electrons in single and double graphene lay...
A hallmark of graphene is its unusual conical band structure that leads to a zero-energy band gap at...
Electron-electron interaction is fundamental in condensed matter physics and can lead to composite q...
Prompted by the recent surge of interest in integrating atomically thin layers of conducting materi...
The interaction between electrons and plasmons in trilayer graphene is investigated within the Overh...
The relation between the energy and momentum of plasmarons in bilayer graphene is investigated withi...
The many-body correction to the band structure of a quasi-free-standing graphene layer is obtained w...
The Coulomb interaction and the correlation of a remote electron with a single layer of graphene is ...
We have investigated the plasmon dispersion in quasi-free-standing monolayer graphene (QFMLG) and ep...
We present several applications of the layered electron gas model to electron energy loss spectrosco...
Electron-plasmon coupling in graphene has been shown recently to give rise to a “plasmaron” quasipar...
A hallmark of graphene is its unusual conical band structure that leads to a zero-energy band gap at...
The plasmon structure of intrinsic and extrinsic bilayer graphene is investigated in the framework o...
We predict the existence of low-frequency nonlocal plasmons at the vacuum-surface interface of a sup...
Graphene is a two-dimensional honeycomb lattice of carbon atoms. Since it is experimentally isolated...
Collective plasma excitations of optically dressed Dirac electrons in single and double graphene lay...
A hallmark of graphene is its unusual conical band structure that leads to a zero-energy band gap at...
Electron-electron interaction is fundamental in condensed matter physics and can lead to composite q...
Prompted by the recent surge of interest in integrating atomically thin layers of conducting materi...