Impenetrability in Floquet scattering in one dimension
arXiv:1804.01339 · doi:10.1007/s00601-018-1391-x
Abstract
We study the scattering off a time-periodic zero-range potential in one spatial dimension. We focus on the parameter regions that lead to zero-transmission probability (ZTP). For static potentials, ZTP leads to fermionization of distinguishable equal-mass particles. For time-periodic potentials, fermionization is prevented by the formation of evanescent waves.
arXiv commentsubmitted to Few-Body Systems, special issue dedicated to the Workshop on Critical Stability of Quantum Few-Body Systems, Dresden 2017
References in corpus (13)
- Feshbach Resonances in Ultracold Gases
- Atomic Scattering in Presence of an External Confinement and a Gas of Impenetrable Bosons
- Ground state properties of a one-dimensional condensate of hard core bosons in a harmonic trap
- Strongly interacting confined quantum systems in one dimension
- Ultracold Molecule Production Via a Resonant Oscillating Magnetic Field
- Exact Solution of Strongly Interacting Quasi-One-Dimensional Spinor Bose Gases
- Real-Time Dynamics of an Impurity in an Ideal Bose Gas in a Trap
- Association of molecules using a resonantly modulated magnetic field
- Two Cold Atoms in a Time-Dependent Harmonic Trap in One Dimension
- Association of Atoms into Universal Dimers using an Oscillating Magnetic Field
- Two- and three-body problem with Floquet-driven zero-range interactions
- Dynamics of small trapped one-dimensional Fermi gas under oscillating magnetic fields
- Singularities of Floquet Scattering and Tunneling