Quantum simulation of extended electron-phonon coupling models in a hybrid Rydberg atom setup
arXiv:2208.11473 · doi:10.1103/PhysRevA.107.032808
Abstract
State-of-the-art experiments using Rydberg atoms can now operate with large numbers of trapped particles with tunable geometry and long coherence time. We propose a way to utilize this in a hybrid setup involving neutral ground state atoms to efficiently simulate condensed matter models featuring electron-phonon coupling. Such implementation should allow for controlling the coupling strength and range as well as the band structure of both the phonons and atoms, paving the way towards studying both static and dynamic properties of extended Hubbard-Holstein models.
References in corpus (12)
- Probing many-body dynamics on a 51-atom quantum simulator
- Realising the Symmetry-Protected Haldane Phase in Fermi-Hubbard Ladders
- One decade of quantum optimal control in the chopped random basis
- Cold Atoms and Molecules in Self-Assembled Dipolar Lattices
- Generalised Kronig-Penney model for ultracold atomic quantum systems
- Topological Phenomena in Trapped Ion Systems
- Spin-Holstein models in trapped-ion systems
- Quantum simulation of extended polaron models using compound atom-ion systems
- Probing phases of quantum matter with an ion-trap tensor-network quantum eigensolver
- Topological phonons in arrays of ultracold dipolar particles
- One-dimensional s-p superlattice
- Operator-based derivation of phonon modes and characterization of correlations for trapped ions at zero and finite temperature