Entanglement Distribution with Minimal Memory Requirements Using Time-Bin Photonic Qudits

IF 9.3 Q1 PHYSICS, APPLIED PRX quantum : a Physical Review journal Pub Date : 2022-10-29 DOI:10.1103/PRXQuantum.3.040319
Yunzhe Zheng, H. Sharma, J. Borregaard
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引用次数: 6

Abstract

Generating multiple entangled qubit pairs between distributed nodes is a prerequisite for a future quantum internet. To achieve a practicable generation rate, standard protocols based on photonic qubits require multiple long-term quantum memories, which remains a significant experimental challenge. In this paper, we propose a novel protocol based on $2^m$-dimensional time-bin photonic qudits that allow for the simultaneous generation of multiple ($m$) entangled pairs between two distributed qubit registers and outline a specific implementation of the protocol based on cavity-mediated spin-photon interactions. By adopting the qudit protocol, the required qubit memory time is independent of the transmission loss between the nodes in contrast to standard qubit approaches. As such, our protocol can significantly boost the performance of near-term quantum networks.
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利用时间仓光子量子阱实现最小内存需求的纠缠分布
在分布式节点之间生成多个纠缠量子位对是未来量子互联网的先决条件。为了实现可行的生成速率,基于光子量子位的标准协议需要多个长期量子存储器,这仍然是一个重大的实验挑战。在本文中,我们提出了一种基于$2^m$维时间仓光子量子位的新协议,该协议允许在两个分布式量子位寄存器之间同时生成多个($m$)纠缠对,并概述了基于腔介导的自旋-光子相互作用的协议的具体实现。通过采用量子位协议,与标准量子位方法相比,所需的量子位存储时间与节点之间的传输损耗无关。因此,我们的协议可以显著提高近期量子网络的性能。
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CiteScore
14.60
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