We theoretically investigate the control of superfluid currents for ultracold gases confined in
a ring lattice. The system is assumed to be in the presence of an artificial magnetic flux …

Controlling the tunneling of atoms of one species using a different atom species is a
fundamental step in the development of a new class of atom quantum devices, where …

We study the persistent currents and interspecies entanglement generation in a Bose–Bose
mixture formed by two atomic gases (hereafter labeled by the letters A and B) trapped in a …

Quantum mechanically, a driving process is expected to be reversible in the quasistatic limit,
also known as the adiabatic theorem. This statement stands in opposition to classical …

We study the propagation and distribution of quantum correlations through two chains of
atoms inside cavities joined by optical fibres. This system is interesting because it can be …

We present a method to calculate from first principles the spin Seebeck effect on finite
systems. Our method, which is suited for all ab initio, quantum-chemistry-based results, is …

We study the generation of entanglement between two species of bosons living on a ring
lattice, where each group of particles can be described by a d-dimensional Hilbert space …

We propose a method to probe ground states with distinct properties in binary mixtures
trapped in small-ring lattices. The technique exploits the nonequilibrium particle current …

Bosonic two-ring ladders constitute an important class of atomtronic circuits, where coherent
current flows not only can offer a new insight into many-body physics, but also can play the …

We study the pair-superfluid phase and entanglement of a Bose-Bose mixture of ultracold
atoms in a ring lattice in the presence of a synthetic gauge field. Special attention is given to …