Exact Solution of the strong coupling t-V model with twisted boundary conditions
arXiv:cond-mat/0007465 · doi:10.1103/PhysRevB.62.7791
Abstract
We present the solution of the one-dimensional t-V model with twisted boundary conditions in the strong coupling limit, t<<V and show that this model can be mapped onto the strong coupling Hubbard chain threaded by a fictitious flux proportional to the total momentum of the charge carriers. The high energy eigenstates are characterized by a factorization of degrees of freedom associated with configurations of soliton and antisoliton domains and degrees of freedom associated with the movement of ``holes'' through these domains. The coexistence of solitons and antisolitons leads to a strange flux dependence of the eigenvalues. We illustrate the use of this solution, deriving the full frequency dependence of the optical conductivity at half-filling and zero temperature.
11 pages, 1 figure; to be published in Physical Review B
References in corpus (11)
- Transport and conservation laws
- Integrability and ideal conductance at finite temperatures
- Evidence for ideal insulating/conducting state in a 1D integrable system
- Shadow band in the one-dimensional large Hubbard model
- Spectral function of the 1D Hubbard model in the limit
- Optical absorption of strongly correlated half-filled Mott-Hubbard chains
- Optical absorption of non-interacting tight-binding electrons in a Peierls-distorted chain at half band-filling
- Exact results for the optical absorption of strongly correlated electrons in a half-filled Peierls-distorted chain
- Curvature of Levels and Charge Stiffness of One-Dimensional Spinless Fermions
- Finite-Temperature Transport in Finite-Size Hubbard Rings in the Strong-Coupling Limit
- Finite-frequency optical absorption in 1D conductors and Mott-Hubbard insulators
Cited by in corpus (19)
- Dynamics of strongly interacting systems: From Fock-space fragmentation to Many-Body Localization
- Interacting spinless fermions in a diamond chain
- Emergent tracer dynamics in constrained quantum systems
- Hilbert space fragmentation and interaction-induced localization in the extended Fermi-Hubbard model
- Correlated singlet phase in the one-dimensional Hubbard-Holstein model
- Ground State Degeneracy of Interacting Spinless Fermions
- A study of cooperative breathing-mode in molecular chains
- Charge and Spin Transport in the One-dimensional Hubbard Model
- Fractons from a liquid of singlet pairs
- Superconductivity Driven by Chain Coupling and Electronic Correlations
- Hilbert space fragmentation imposed real spectrum of non-Hermitian systems
- Interacting spinless fermions on the square lattice: Charge order, phase separation, and superconductivity
- Probing Hilbert space fragmentation and the block inverse participation ratio
- Undamped Bloch Oscillations in the one-dimensional Hubbard model
- Non-Hermitian skin effect in fragmented Hilbert spaces of one-dimensional fermionic lattices
- The generalized t-V model in one dimension
- Ground state of one-dimensional fermion-phonon systems
- Low-dimensional quantum systems
- Periodic revivals from supersymmetry in a fermionic kinetically constrained model