An interplay of geometrical frustration and strong quantum fluctuations in a spin-1/2
triangular-lattice antiferromagnet (TAF) can lead to exotic quantum states. Here, we report …

Spectral probes, such as neutron scattering, are crucial for characterizing excitations in
quantum many-body systems and the properties of quantum materials. Among the most …

We study the quantum and thermal phase transition phenomena of the SU (3) Heisenberg
model on triangular lattice in the presence of magnetic fields. Performing a scaling analysis …

We demonstrate single-site-resolved fluorescence imaging of ultracold 87 Rb atoms in a
triangular optical lattice by employing Raman sideband cooling. Combining a Raman …

Prototypical models and their material incarnations are cornerstones to the understanding of
quantum magnetism. Here we show theoretically that the recently synthesized magnetic …

We investigate the thermal phase transitions of the J 1-J 2-J 3 Ising model on the
honeycomb lattice. This model exhibits the zigzag (ZZ) antiferromagnetic phase, which is …

A primary goal at the interface of theoretical and experimental quantum magnetism is the
investigation of exotic spin states, mostly notably quantum spin liquids (QSLs) that realize …

Phase transitions and thermodynamic properties of the frustrated J 1-J 2-J 3 Ising model on
the honeycomb lattice are investigated by using the cluster mean-field theory and Monte …

We study the Ising model on a bilayer honeycomb lattice with frustrated antiferromagnetic
interactions using the cluster mean-field method. We investigate the role of exchange …

We focus on three-component SU (3) Fermi gases loaded into a square optical lattice, with
population imbalance between one component and the others. At strong coupling the …