Rethinking Quantum Repeaters: Balancing Scalability, Feasibility, and Interoperability
Javier Rey-Dom\'inguez, Mohsen Razavi

TL;DR
This paper proposes a scalable, practical quantum repeater design that leverages connectionless entanglement swapping and simple error detection, aiming to facilitate long-distance quantum communication compatible with existing internet infrastructure.
Contribution
The paper introduces a novel quantum repeater approach combining connectionless protocols and basic error detection to enhance scalability and feasibility.
Findings
Demonstrates trust-free continental QKD over a repeater chain
Shows compatibility with current telecom infrastructure
Provides a scalable alternative to existing quantum repeater solutions
Abstract
Quantum repeaters are enabling technologies for long-distance quantum communications. Despite the significant progress in the field, we still not only face implementation challenges but also need theoretical solutions that better meet all the desired design criteria. Preliminary solutions for quantum repeaters often do not scale well, while the most advanced solutions are so demanding that their implementation may take a long time and require substantial changes to current telecom infrastructure. In this paper, we propose a compromise solution that is not only scalable in the mid-to-long term but also adapts well to the realities of the backbone networks in the current Internet infrastructure. The key ideas behind our solution are twofold. First, we use a connectionless approach to entanglement swapping, allowing our solution to benefit from the same features as packet-switched…
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