This paper reviews the recent theoretical and experimental advances in the study of ultra-
cold gases made of bosonic particles interacting via the long-range, anisotropic dipole …

Matter waves inside periodic potentials are well known from solid-state physics, where
electrons interacting with a crystal lattice are considered. Atomic Bose-Einstein condensates …

Quantum computers, though not yet available on the market, will revolutionize the future of
information processing. Quantum computers for special purposes like quantum simulators …

The Hubbard model underlies our understanding of strongly correlated materials. Whereas
its standard form only comprises interactions between particles at the same lattice site …

We show that light-pulse atom interferometry with atomic point sources and spatially
resolved detection enables multiaxis (two rotation, one acceleration) precision inertial …

Gravitational waves (GWs) were observed for the first time in 2015, one century after
Einstein predicted their existence. There is now growing interest to extend the detection …

The Hubbard model accounts for many of the diverse phenomena observed in solid-state
materials, despite incorporating only nearest-neighbour hopping and on-site interactions for …

We demonstrate atom interferometers utilizing a novel beam splitter based on sequential
multiphoton Bragg diffractions. With this sequential Bragg large momentum transfer (SB …

Throughout physics, stable composite objects are usually formed by way of attractive forces,
which allow the constituents to lower their energy by binding together. Repulsive forces …

We investigate the interaction of a laser-cooled trapped ion (Ba+ or Rb+) with an optically
confined Rb 87 Bose-Einstein condensate. The system features interesting dynamics of the …