It is commonly believed that a noninteracting disordered electronic system can undergo only
the Anderson metal-insulator transition. It has been suggested, however, that a broad class …

Understanding strongly correlated phases of matter, such as the quark–gluon plasma and
neutron stars, and in particular the dynamics of such systems, for example, following a …

Molecular quantum gases (that is, ultracold and dense molecular gases) have many
potential applications, including quantum control of chemical reactions, precision …

We discuss how large three-body loss of atoms in an optical lattice can give rise to effective
hard-core three-body interactions. For bosons, in addition to the usual atomic superfluid, a …

Advances in atomic physics have led to the possibility of a coherent transformation between
ultracold atoms and molecules including between completely bosonic condensates. Such …

We demonstrate the existence of quantum droplets in two-component one-dimensional
Bose-Hubbard chains. The droplets exist for any strength of repulsive intraspecies …

We present a method for creating fields that couple to neutral atoms in the same way that
electromagnetic fields couple to charged particles. We show that this technique opens the …

We propose that by exciting ultracold atoms from the zeroth to the first Bloch band in an
optical lattice, multiflavor bosonic Hubbard Hamiltonians can be realized in a different way …

Motivated by a realization of imbalanced Feshbach-resonant atomic Fermi gases, we
formulate a low-energy theory of the Fulde-Ferrell and the Larkin-Ovchinnikov (LO) states …

We study spinless electrons in a single-channel quantum wire interacting through attractive
interaction, and the quantum Hall states that may be constructed by an array of such wires …