Properties of holons in the Quantum Dimer Model
arXiv:0711.2229 · doi:10.1103/PhysRevLett.100.157206
Abstract
I introduce a doped two-dimensional quantum dimer model describing a doped Mott insulator and retaining the original Fermi statistics of the electrons. This model shows a rich phase diagram including a d-wave hole-pair unconventional superconductor at small enough doping and a bosonic superfluid at large doping. The hole kinetic energy is shown to favor binding of topological defects to the bare fermionic holons turning them into bosons, in agreement with arguments based on RVB wave-functions. Results are discussed in the context of cuprates superconductors.
4 pages, 5 figures, extensive revision, important new data included in Fig.4(a)
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- RVB superconductors with fermionic projected entangled pair states
- Impurity-doped Kagome Antiferromagnet: A Quantum Dimer Model Approach
- Finite-Volume Energy Spectrum, Fractionalized Strings, and Low-Energy Effective Field Theory for the Quantum Dimer Model on the Square Lattice
- Exact solution of a two-species quantum dimer model for pseudogap metals
- Exact sign structure of the - chain and the single hole ground state
- Statistical transmutation in doped quantum dimer models
- Field-induced superfluids and Bose liquids in Projected Entangled Pair States
- Statistics of holes and nature of superfluid phases in Quantum dimer models
- Fractons from a liquid of singlet pairs
- Magnetic field-induced transition in a quantum magnet described by the Quantum Dimer Model
- Electron spectral functions in a quantum dimer model for topological metals
- Topological antiferromagnetic spin-density-wave phase in an extended Kondo lattice model