New paper where we microscopically observe spin polarons in a triangular Fermi-Hubbard system! Kinetic frustration in triangular lattices leads to the formation of polarons that can exist in the absence of superexchange and are robust at high temperatures.
https://t.co/KpU4sWRIL9
Congratulations to Lysander Christakis who received his PhD written under the direction of Professor Waseem Bakr. Principal examiners in attendance were Professors Waseem Bakr, David Huse, and Jeffrey Thompson. #PrincetonPHYFPO
The researchers cooled molecules down to ultracold temperatures, loaded them into a crystal of light known as an optical lattice, and studied their collective quantum behavior such that each individual molecule could be observed. @PrincetonPhys https://t.co/6AdaldXeSR
A #PrincetonU experiment could have profound implications for fundamental physics research and accelerate the development of large-scale quantum computer systems. ⬇️ https://t.co/izcCoJVRxZ
https://t.co/v6Kjr9gjVo Our paper on the observation of the Hanbury Brown-Twiss effect with a molecular quantum gas microscope is now out in Nature Physics! @PrincetonPhys@NaturePhysics@princetonideas
@quantenvogel We actually tried briefly to do this, and we did see some kind of long-range correlations after the ramp, but due to some technical noise it wasn't very clear so we moved on. Should be solvable in the future though. Also it should be possible to use multiple rotational states!
Check out our new paper from the Bakr lab! We use ultracold molecules in an optical lattice to simulate an interacting spin model, and then probe the growth of correlations between the spins in time with microscopic resolution https://t.co/BjCBY5y7pT
@quantenvogel Thank you! To do that, instead of doing the quench dynamics that we show here, you would want to do an adiabatic ramp to the ground state. Then you should see a transition between exponential to algebraic correlations as you ramp slowly into the superfluid phase. Future work :)
I'm excited about this paper because it took almost 5 years of work to build the instrument and collect the data for these results, but it was worth it because I think these experiments really demonstrate the power of ultracold molecules for studying quantum many-body physics.
Latest work from the Bakr Lab https://t.co/sbNPl1Wa59! We scale our Fermi-Hubbard optical tweezer platform to 2-dimensions, where we realize a variety of programmable lattice geometries using a stroboscopic technique.