Events

Erenay Karacan, ETH Zurich, Switzerland
Driven Bose–Einstein condensates in optical cavities have emerged as a powerful platform to probe many-body physics with long-range interactions. more

David Kielert, ETH Zurich, Switzerland
Ultracold-atom quantum-transport experiments realize a two-terminal circuit in which atoms are guided through a channel drawn by light. more

Dr. Ran Finkelstein, Tel Aviv University, Israel
Large arrays of trapped neutral atoms have emerged over the past few years as a promising platform for quantum information processing, combining inherent scalability with high-fidelity control and site-resolved readout. more

Stefano Veroni, University of Oxford, UK
To reduce the large overhead of fully fault-tolerant (FT) universal computation, the framework of partial fault-tolerance has recently been proposed. more

Kfir Sulimany, MIT, USA & Technicon, Israel
The rise of cloud-based deep learning sharpens a fundamental question: can useful computation be performed when both the user’s data and the model itself must remain private? more

Prof. Martin Zwierlein, MIT Department of Physics
Strongly interacting atomic Fermi gases allow the realization of superfluids with the highest critical temperature at given density. Their physics connects to strong-coupling superconductors, neutron matter and the quark-gluon plasma of the Early Universe. more

Friederike Butt, RTHW Aachen University, Germany
The ability to perform quantum error correction (QEC) and robust gate operations on encoded qubits is a key step toward practical demonstrations of quantum algorithms. more