Volume 134, Issue 7
https://t.co/ES6rzKha7y
Cover: Schematic depiction of a nonlocal quantum game involving a referee and two players
https://t.co/j1DXIfiNUR
@rdviii I didn’t know about this paper,great to see. ATM we’re learning to control two nodes and do useful things with them. Our 'optical switchboard' is just a single BSA. We’ve considered alternatives for multinodes, since bipartite entanglement can be limiting https://t.co/ofjqmNAXt3
Really excited to share our recent research in which we demonstrated distributed quantum computations using two trapped-ion processors connected by an optical link!
https://t.co/MYYa89sIRA
Really excited to share our recent research in which we demonstrated distributed quantum computations using two trapped-ion processors connected by an optical link!
https://t.co/MYYa89sIRA
Our experimental demonstration of blind quantum computing using trapped ions is now in PRL. A trapped ion quantum processor is privately programmed by remotely measuring single photons
@NKT_Photonics We used to have an old Koheras laser like this. I remember asking you ~6 years ago, if you will build this laser again to use it in our barium exmeriment. Your answer was that there was no practical use for this laser, that was economically unviable😂
Check out our new preprint!
https://t.co/wT6UOUQGkU
We show how to perform blind quantum computation using trapped ions as the blind server and a simple measurement device for single photons as the client
@OxfordPhysics@QCSHub
Now in PRL!
We showed how a trapped-ion quantum network node can be made more robust and versatile by adding a second atomic species. We demostrate that we can keep ion-photon entanglement alive for more than 10 seconds!
https://t.co/yWSHpppgLm
@OxfordPhysics@QCSHub
Quantum entanglement of atomic clocks for greater precision.
#NotTheCover for Nature, illustrated for @gaaraneda et al.
Read the paper here:
https://t.co/fgg9qBydRE
#sciart#coverart#physics
In our new preprint we show how a trapped-ion quantum network node can be made more robust and versatile by adding a second atomic species. We demostrate that we can keep ion-photon entanglement alive for more than 10 seconds!
@OxfordPhysics@QCSHub
https://t.co/ifXGc6eGPA
Looking for a way to improve the read out of your atomic clocks? Easy, just entangle them.
Check our paper in Nature in which we show how to
https://t.co/xzGrp2aUNP