Quantifying the nonuniversal three-body losses in ultracold atomic gases has been a long-
standing problem. We go beyond earlier approaches to solve this problem by using a model …

We propose a precise test of two fundamental gravitational constants using a novel detector
concept that exploits the dynamics of quantum phononic excitations in a trapped Bose …

An interesting proposal for detecting gravitational waves involves quantum metrology of
Bose–Einstein condensates (BECs). We consider a forced modulation of the speed of sound …

Engineering atom-atom interactions is essential both for controlling novel phases of matter
and for efficient preparation of many-body entangled states, which are key resources in …

Under some constraints, we build exact and approximate first-and second-order rogue wave
(RW) solutions with two control and one free parameters for a quasi-one-dimensional Gross …

We introduce a quantum interferometric scheme that uses states that are sharp in frequency
and delocalized in position. The states are frequency modes of a quantum field that is …

The increase of the number of the two-body recombination channels strongly challenges the
numerical calculation of the accurate rates for the three-body recombination (TBR) process …

The generation of many-body entangled states in atomic samples should be fast, as this
process always involves a subtle interplay between desired quantum effects and unwanted …

We give a detailed and self-contained description of a recently developed theoretical and
numerical method for the simulation of three identical bosonic alkali-metal atoms near a …

Ensembles of ultra-cold atoms have been proven to be versatile tools for high precision
sensing applications. Here, we present a method for the manipulation of the state of trapped …