Events

Christoph Eigen, Cambridge University, UK
I will showcase two recent series of experiments using ultracold homogeneous 39K Bose gases, which offer widely tunable interparticle interactions using Feshbach resonances. more

Prof. Tijs Karmann, Radboud University, The Netherlands
In this talk I will discuss double microwave shielding to suppress collisional loss of ultracold polar molecules. more

Diep Nguyen, Nagoya University; Japan
In this talk, I will first introduce the nuclear magnetic resonance (NMR) technique to explore many-body quantum states in condensed matter, by utilizing the local probe of NMR static and dynamical observables. more

David Gröters, University of Cambridge, UK
Quasicrystals constitute a unique class of materials that exhibit rotational symmetries that are forbidden in typical periodic latices. This leads to a crystal structure which is not periodic yet longrange ordered and thus commonly referred to as quasidisordered. Disordered systems are known to host ... more

Pedro Sales Rodriguez, MIT, Cambridge, MA, USA
Tweezer arrays give unique individual control of atoms and their internal states. As these experiments grow in complexity, so does the need for real-time control and integration with classical resources. more

Kevin Wang, Columbia University, New York, USA
I present the development of an experimental platform for trapping neutral strontium atoms in optical tweezer arrays generated by holographic metasurfaces. In contrast to conventional bulk optics, metasurfaces offer an exciting new avenue more

William Eckner, JILA, UCB, Colorado, USA
Programmable arrays of neutral atoms trapped in optical tweezers and lattices have emerged as a powerful tool for studies of competitive optical atomic clocks, as well as the generation of entangled quantum states with the use of Rydberg interactions and methods from both analog quantum simulation and digital quantum information processing. more