In recent years, the systems comprising of bosonic atoms confined to optical lattices at ultra-
cold temperatures have demonstrated tremendous potential to unveil novel quantum …

The concept of synthetic dimensions works particularly well in atomic physics, quantum
optics, and photonics, where the internal degrees of freedom (Zeeman sublevels of the …

Deconfined quantum criticality describes continuous phase transitions that are not captured
by the Landau-Ginzburg paradigm. Here, we investigate deconfined quantum critical points …

Short-wavelength repulsive potentials for quantum gases allow one to realize new systems
and to study new phenomena. Here we report the realization of repulsive optical potentials …

Deconfined quantum critical points are exotic transition points not predicted by the Landau-
Ginzburg-Wilson symmetry-breaking paradigm. They are associated to a one-point gap …

We investigate the nature of the quantum phase transition in modulated SU (N) Heisenberg
spin chains. In the odd-N case, the transition separates a trivial nondegenerate phase to a …

We investigate the Hall response of hardcore bosonic atoms on a triangular ladder in a
magnetic field. To access the dynamical properties of this many-body quantum system, we …

This paper investigates the widely used Zig-zag optical lattice prototype for cold bosonic
atoms. This prototype generally represents nonlinear waves in plasma physics and fluid …

Designing the amplitude and range of couplings in quantum systems is a fundamental tool
for exploring a large variety of quantum mechanical effects. Here, we consider off-resonant …

Deconfined quantum critical points (DQCPs) are proposed as unconventional second-order
phase transitions beyond the Landau-Ginzburg-Wilson paradigm. The nature and …