Trapped ultracold gases are highly controllable experimental systems with unique quantum
properties, making them a brilliant medium for research in solid state physics, quantum …

Magnetically tunable Feshbach resonances in ultracold atomic systems are chiefly identified
and characterized through time-consuming atom loss spectroscopy. We describe an off …

There is an error in the experimentally measured two-body loss rate coefficients K21
throughout the paper which are too small by an exact factor of 2. This resulted from the …

In this thesis we explore ultracold atomic collisions in the vicinity of a magnetic Feshbach
resonance located at 9.1 G, between 87Rb atoms in the| F= 2, mF= 1> and the| F= 1, mF= 1> …

This thesis presents a simple theoretical model of a Feshbach resonance between two
colliding ultracold atoms and experimental progress towards the observation of such a …

Feshbach resonances are among the essential control tools used in ultracold atom
experiments. However, for complex atomic species the theoretical characterization of …

Ultracold atomic gases have realized numerous paradigms of condensed matter physics,
where control over interactions has crucially been afforded by tunable Feshbach …

The capability to tune the strength of the elastic interparticle interaction is crucial for many
experiments with ultracold gases. Magnetic Feshbach resonances, are widely harnessed for …

The revolution that has taken place in atomic, molecular, and optical (AMO) physics and
physical chemistry since the early 2000s has been made possible by a variety of techniques …

Using a narrow intercombination line in alkaline earth atoms to mitigate large inelastic
losses, we explore the optical Feshbach resonance effect in an ultracold gas of bosonic Sr …