Engineering interactions and anyon statistics by multicolor lattice-depth modulations

Abstract

We show that a multicolor modulation of the depth of an optical lattice allows for a flexible independent control of correlated hopping, occupation-dependent gauge fields, effective on-site interactions without Feshbach resonances, and nearest-neighbor interactions. As a result, the lattice-depth modulation opens the possibility of engineering with minimal experimental complexity a broad class of lattice models in current experiments with ultra-cold atoms, including Hubbard models with correlated hopping, peculiar extended models, and two-component anyon-Hubbard models.

5 pages, 4 figures

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Cited by in corpus (36)

• Atomic quantum gases in periodically driven optical lattices
• Realization of density-dependent Peierls phases to engineer quantized gauge fields coupled to ultracold matter
• Tailoring quantum gases by Floquet engineering
• Observation of density-dependent gauge fields in a Bose-Einstein condensate based on micromotion control in a shaken two-dimensional lattice
• Symmetry-broken states in a system of interacting bosons on a two-leg ladder with a uniform Abelian gauge field
• Bosonic continuum theory of one-dimensional lattice anyons
• Quantum Simulation Meets Nonequilibrium Dynamical Mean Field Theory: Exploring the Periodically Driven, Strongly Correlated Fermi-Hubbard Model
• Suppressing dissipation in a Floquet-Hubbard system
• Phases of Attractive Fermi Gases in Synthetic Dimensions
• Ground State Properties of the One-Dimensional Unconstrained Pseudo-Anyon Hubbard Model
• Strain and pseudo-magnetic fields in optical lattices from density-assisted tunneling
• Probing the exchange statistics of one-dimensional anyon models
• Correlation functions of one-dimensional strongly interacting two-component gases
• Large time and long distance asymptotics of the thermal correlators of the impenetrable anyonic lattice gas
• Engineered Nearest-Neighbour Interactions with Doubly Modulated Optical Lattices
• Three-body interaction effects on the ground state of one-dimensional anyons
• Generation of atypical hopping and interactions by kinetic driving
• Non-equilibrium dynamics of the anyonic Tonks-Girardeau gas at finite temperature
• Statistically induced topological phase transitions in a one-dimensional superlattice anyon-Hubbard model
• Modeling free anyons at the bosonic and fermionic ends
• Quantum computation from fermionic anyons on a 1D lattice
• Quantum walk of two anyons across a statistical boundary
• Exact spectral function of the Tonks-Girardeau gas at finite temperature
• Statistics-tuned phases of pseudofermions in one dimension
• Modulation-induced long-range magnon bound states in one-dimensional optical lattices
• Tunneling Spectroscopy in Superconducting Circuit Lattices
• Bosonization study of a generalized statistics model with four Fermi points
• Anderson-Mott transition in a disordered Hubbard model with correlated hopping
• Exact spectral function and nonequilibrium dynamics of the strongly interacting Hubbard model
• Chirally-protected state manipulation by tuning one-dimensional statistics
• Gauge transformations and Galilean covariance in nonlinear gauge-coupled quantum fluids
• Fermionic anyons: entanglement and quantum computation from a resource-theoretic perspective
• Nonequilibrium dynamics in one-dimensional strongly interacting two-component gases
• Manipulating multimer propagation using lattice modulation
• Quench Dynamics of Anyon Tonks-Girardeau Gases
• Effect of phase string on single-hole dynamics in the two-leg Hubbard ladder