A feature article on our recent research was published by @UniofOxford and @OxfordPhysics! https://t.co/zys6VSJKJC

Our latest work is out in Nat. Commun! We report the first observation of tunnelling-assisted superfluidity in bilayer 2D quantum gases - a robust platform for quantum simulation, from superconductors to QCD. Great collaboration with @unihh & @TIIuae. https://t.co/Ut5b4ozCT1

📜Our new paper on detecting quantum vortices with Convolutional Neural Networks has been published in @MLSTjournal! ✅The scheme offers efficient, system-wide vortex detection - even in noisy, experimental data. 🔗 Read here: https://t.co/8cUUQAJqo7 #MachineLearning

New preprint from the Rb Team. In collaboration with researchers from @unihh and @TIIuae, we have observed a double-layer superfluid phase in 2D quantum gases trapped in controllable bilayer potentials, supported by interlayer tunnel-coupling. https://t.co/EnxYXcIYB9

The @ox_ultracold AION team proposed an experimental scheme for an atom interferometer to measure fine structure constant with improved precision. The preprint is available on arXiv. https://t.co/A1MELX4mfs

New arXiv preprint available from the 2D Bose gas experiment. We demonstrate the noise interferometry technique to detect the common mode phase fluctuation of bilayer 2D Bose gases. https://t.co/o1OvQV80uD

The @OxfordPhysics & @unihh team published in @ScienceMagazine. We quench 2D Bose gases across the BKT transition and probe the relaxation dynamics with matter-wave interferometry; we found that the scaling behaviour is consistent with real-time RG theory. https://t.co/ujYe0n3poN

Here is the newest Physics Plot of the Week! -- Plot from Shinichi Sunami et. al Congratulations to the winners!🥳

Our new paper is published in PRL in collaboration with the Mathey Group (Hamburg). We probe the local phase fluctuation in 2D Bose gases across the BKT transition using matter-wave interferometry. #atomicphysics https://t.co/sgyrNoAB4T

Over the next years we'll be pooling the talents of our amazing team of theorists and experimentalists to create a prototype detector and work out new ways of improving the sensitivity of our measurements. Follow us for more information and updates about our work!

They were supported by @magdalenoxford, @OxUInnovation and @JHubDefence. You can test out Vaximap here too:

Our paper with NYU group (Tim Byrnes), “Faraday-imaging-induced squeezing of a double-well Bose-Einstein condensate”, was published in PRA. We propose to perform measurements of BEC to produce useful correlated states, such as squeezed and cat states. https://t.co/gnQ9Kk1aDC

Check out our new preprint on arXiv in collaboration with the Mathey group from Hamburg. We use matter-wave interferometry to observe and characterise the BKT transition in a harmonically trapped quasi-2d Bose gas. https://t.co/VinumNwto9 #coldatoms #matterwave

Check out our @arxiv paper on simulating #LaserCooling using #AtomECS! https://t.co/YqUNnhUBBV This work was in collaboration with our #AIONInterferometry colleague @drbentine @ox_ultracold.

A two-dimensional Bose-Einstein condensate of Cs molecules https://t.co/5IbbudCBEo

Our new paper in collaboration with the NYU group is available on arXiv. We show how Faraday imaging can generate spin-squeezing in an atomic Bose-Einstein condensate trapped in double-well potentials. https://t.co/QfNDJUPWmQ

'Applying #machinelearning optimization methods to the production of a #quantum gas' by Chris Foot @FelixHill84 and colleagues @ox_ultracold @DeepMind hits 2000 downloads! #Openaccess at https://t.co/6UwC4jmAxh #deeplearning #BEC #neuralnetworks #quantummatter #coldatoms

One of our DPhil students, Shinichi Sunami is presenting a poster at 6 p.m. today at the “New perspectives on quantum many-body chaos” conference. If you’d like to attend, please register on the link below. https://t.co/Nsju8rwVZB

I’m so excited that we can finally announce this! And of course most importantly, that after a couple of years of planning and putting together the grant application we can soon start the fun part and build it! 👩🏼‍🔧👩🏼‍🔬👩🏼‍💻