SYMULGAS · Synthetic magnetism with ultracold Fermi gases of strontium
Horizon 2020 — Marie Skłodowska-Curie Actions
- Duration
- 2015-08-01 → 2017-07-31
- EU contribution
- €177,599
- Participants
- 1
- Scheme
- MSCA-IF-EF-ST
Lines connect the coordinator with its partners.
Results in brief
Synthetic magnetism with ultracold Fermi gases of strontium
Ultracold atoms can provide a unique perspective into the quantum world. Quantum degenerate gases at nanokelvin temperatures are being created in our laboratory during this fellowship with the goal to explore a new frontier of physics called topological states of matter. Topological phenomena emerge when the geometry of a system dominates its behavior and the exact rates of interaction are of little significance. The Nobel Prize for Physics 2016 has been awarded for “theoretical discoveries of topological phase transitions and topological phases of matter”. The initial goal of my project was to get the opportunity to work in establishing ultracold strontium (Sr) as a powerful experimental platform to shed light on outstanding problems of magnetism of quantum matter in periodic potentials. As a side-benefit probing fermionic strontium in optical lattices with ultra-narrow lasers can reveal properties useful for the improvement of atomic lattice clocks that currently are the most accurate time-keepers in the world. Our work has the potential to impact other disciplines such as condensed matter and optics. This project is only possible and realistic since the host group of F. Schreck at the University of Amsterdam (UvA) - the first group in the world to make a Sr BEC and the only one in Europe with such expertise - has a fully operational apparatus which produces quantum degenerate gases of strontium. Exciting developments in the front of ultracold heteronuclear molecules made this apparatus inaccessible to my project at a full-time basis and we took the initiative to build a completely new experiment with the same aforementioned goals that we have finished within the duration of that action.
Data: CORDIS, © European Union
Project objective
Since the first observation of a gaseous Bose Einstein condensate , ultracold atoms have provided a unique perspective into the quantum world. In a few seconds a piece of hot metal is transformed into an extremely dilute, nanokelvin gas, which is governed by quantum statistics - a new state of matter. Quantum gases are so versatile that with the same apparatus one can, for example, explore superfluidity and ultracold chemical reactions, or even search for changes in fundamental constants . A new frontier of physics, with multidisciplinary appeal, explores topological states of matter, such as the ones predicted to emerge when quantum gases are immersed in a synthetic gauge field.This fellowship will give me the opportunity to work in establishing ultracold strontium (Sr) as a powerful experimental platform to shed light on outstanding problems of magnetism of quantum matter in periodic potentials. Our work will potentially impact other disciplines such as condensed matter and optics. Our specific research goals during this action are:1.Demonstration of the paradigmatic Kondo lattice model (KLM) in an ultracold gas.2.Creation of synthetic gauge fields with an alkaline earth element using an optical flux lattice.3.Observation of synthetic gauge fields in a 4-dimensional lattice of SU(N)-symmetric strontium.This proposal is only possible and realistic since the host group of F. Schreck - the first group in the world to make a Sr BEC and the only one in Europe with such expertise - has a fully operational apparatus which produces quantum degenerate gases of strontium. This fellowship stay will be mutually beneficial: the host group will benefit from the researcher's experience with artificial gauge fields, and at the same time the fellow will receive world-class training and benefit from the international collaborations of F. Schreck.
Original text from CORDIS.
Participants
- UNIVERSITEIT VAN AMSTERDAM · AmsterdamCoordinatorNetherlands
Links
Data: CORDIS, © European Union