Entanglement distillation is a fundamental building block in long-distance quantum communication. Though known to be useless on their own for distilling Gaussian entangled states, local Gaussian operations may still help to improve non-Gaussian entanglement distillation schemes. Here we show that by applying local squeezing operations both the performance and the efficiency of existing distillation protocols can be enhanced. We find that such an enhancement through local Gaussian unitaries can be obtained even when the initially shared Gaussian entangled states are mixed, as, for instance, after their distribution through a lossy-fiber communication channel
We investigate the dynamical enhancement of entanglement by means of local squeezing of initial sepa...
Entanglement distillation transforms weakly entangled noisy states into highly entangled states, a p...
We experimentally demonstrate distillation of continuous variable entangled light that has undergone...
Entanglement distillation is a fundamental building block in long-distance quantum communication. Th...
Entanglement distribution task encounters a problem of how the initial entangled state should be pre...
Entanglement distillation is a key primitive for distributing high-quality entanglement between remo...
Many different quantum information communication protocols such as teleportation, dense cod-ing and ...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
Any continuous-variable distillation protocol that does not change the effective loss of the transmi...
We establish fundamental upper bounds on the amount of secret key that can be extracted from quantum...
We study the continuous-variable quantum teleportation of states, statistical moments of observables...
We investigate the dynamical enhancement of entanglement by means of local squeezing of initial sepa...
We investigate the dynamical enhancement of entanglement by means of local squeezing of initial sepa...
Entanglement distillation transforms weakly entangled noisy states into highly entangled states, a p...
We experimentally demonstrate distillation of continuous variable entangled light that has undergone...
Entanglement distillation is a fundamental building block in long-distance quantum communication. Th...
Entanglement distribution task encounters a problem of how the initial entangled state should be pre...
Entanglement distillation is a key primitive for distributing high-quality entanglement between remo...
Many different quantum information communication protocols such as teleportation, dense cod-ing and ...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
We investigate the continuous-variable entanglement swapping protocol in a non-Gaussian setting, wit...
Any continuous-variable distillation protocol that does not change the effective loss of the transmi...
We establish fundamental upper bounds on the amount of secret key that can be extracted from quantum...
We study the continuous-variable quantum teleportation of states, statistical moments of observables...
We investigate the dynamical enhancement of entanglement by means of local squeezing of initial sepa...
We investigate the dynamical enhancement of entanglement by means of local squeezing of initial sepa...
Entanglement distillation transforms weakly entangled noisy states into highly entangled states, a p...
We experimentally demonstrate distillation of continuous variable entangled light that has undergone...