Pseudospin and Deformation-induced Gauge Field in Graphene
arXiv:0810.4192 · doi:10.1143/PTPS.176.253
Abstract
The basic properties of -electrons near the Fermi level in graphene are reviewed from a point of view of the pseudospin and a gauge field coupling to the pseudospin. The applications of the gauge field to the electron-phonon interaction and to the edge states are reported.
27 pages, 7 figures
Cited by in corpus (52)
- Electronic and optical properties of strained graphene and other strained 2D materials: a review
- Valley filter in strain engineered graphene
- Strain-induced quantum phase transitions in magic angle graphene
- Tuning the pseudospin polarization of graphene by a pseudo-magnetic field
- Field-induced Kosterlitz-Thouless transition in the N=0 Landau level of graphene
- Phonon driven Floquet matter
- Breit-Wigner-Fano lineshapes in Raman spectra of graphene
- Parity anomaly and Landau-level lasing in strained photonic honeycomb lattices
- Symmetry breaking and skyrmionic transport in twisted bilayer graphene
- Strained fold assisted transport in graphene systems
- The origin of Raman D Band: Bonding and Antibonding Orbitals in Graphene
- Kohn Anomalies in Graphene Nanoribbons
- Theory of tunable flux lattices in the homobilayer moiré of twisted and uniformly strained transition metal dichalcogenides
- Identifying the Orientation of Edge of Graphene Using G Band Raman Spectra
- Large-area nanoengineering of graphene corrugations for visible-frequency graphene plasmons
- Effective Dirac Hamiltonian for anisotropic honeycomb lattices: optical properties
- Conversion between electron spin and microscopic atomic rotation
- Fermi energy dependence of first- and second-order Raman spectra in graphene: Kohn anomaly and quantum interference effect
- Kohn Anomaly in Raman Spectroscopy of Single Wall Carbon Nanotubes
- Perfect valley filter in strained graphene with single barrier region
- Efficient Dual Spin-Valley Filter In Strained Silicene
- Origin of electronic Raman scattering and the Fano resonance in metallic carbon nanotubes
- Photonic spin Hall effect in Haldane model materials
- Electron dynamics in strained graphene
- Enhanced asymmetric valley scattering by scalar fields in non-uniform out-of-plane deformations in graphene
- Berry's Phase for Standing Wave Near Graphene Edge
- Chiral Gauge Theory for Graphene Edge
- Tilted Dirac cone effects and chiral symmetry breaking in a planar four-fermion model
- Large intravalley scattering due to pseudo-magnetic fields in crumpled graphene
- Soliton Trap in Strained Graphene Nanoribbons
- Designing 1D correlated-electron states by non-Euclidean topography of 2D monolayers
- Chiral-phonon-induced current in helical crystals
- A supersymmetric model for graphene
- Disorder-induced double resonant Raman process in graphene
- Dynamical Mass Generation in Pseudo Quantum Electrodynamics with Four-Fermion Interactions
- Coherent radial breathing like phonons in graphene nanoribbons
- Polarization Dependence of Raman Spectra in Strained Graphene
- Phase structure of monolayer graphene from effective U(1) gauge theory on honeycomb lattice
- Valley properties of doped graphene in a magnetic field
- Topological Raman Band in Carbon Nanohorn
- Strain induced quantum Hall effect of excitons in graphene
- Emergent Chern-Simons excitations due to electron--phonon interaction
- Ising instability of a Holstein phonon mode in graphene
- Valley-antisymmetric potential in graphene under dynamical deformation
- Multifractal wave functions of charge carriers in graphene with folded deformations, ripples or uniaxial flexural modes: analogies to the quantum Hall effect under random pseudomagnetic fields
- Frequency splitting of intervalley phonons in graphene
- Band Gaps and Wavefunctions of Electrons Coupled to Pseudo Electromagnetic Waves in Rippled Graphene
- First order phase transitions within Weyl type of materials at low temperatures
- Massive Dirac Fermions Signal in Raman Spectrum of Graphene
- Theory for strained graphene beyond the Cauchy-Born rule
- Renormalization of the optical band gap through an effective Thirring interaction for massive Dirac-like electrons
- Stationary Two-State System in Optics using Layered Materials