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Résumé |
The combination of entanglement, measurement, and classical communication allows the teleportation of
quantum states between distant parties. In this talk, I will study the transfer of correlations and entanglement
in many-body wavefunctions under imperfect teleportation protocols, specifically focusing on the ground
state of a critical Ising chain. I will show that imperfections act as weak measurements on the teleported
critical state. Leveraging the theory of measurement-altered quantum criticality, I can quantify the resilience
of critical-state teleportation. These findings identify classes of teleportation protocols that either maintain
universal long-range entanglement and correlations, weakly modify them, or preserve power-law correlations
while eliminating long-range entanglement. Finally, I will highlight a path to experimental realization in analog
quantum simulators based on Rydberg atom arrays. |
