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This research explores "quantum telepathy," leveraging entanglement to solve coordination problems where classical communication is restricted by latency or isolation, such as in high-frequency trading. The study demonstrates that these protocols offer a provable quantum advantage via Bell's theorem and can be implemented on near-term hardware without requiring full fault tolerance.
Quantum Telepathy: A Quantum Technology with Near-Term Applications
arXiv:2603.10883v2 Announce Type: replace Abstract: Quantum telepathy is the concept of using quantum entanglement to solve real-world problems involving decision coordination between parties with restricted communication. One possible reason for this restriction is a latency constraint: some pairs of parties do not have enough time to communicate with each other before they have to produce their outputs. Example scenarios include high frequency trading and distributed systems. Another reason is physical or operational isolation: for some pairs of parties, there is an obstacle to communication. Example scenarios include locating a stray traveler by a rescue team and coordination within a network where nodes are owned by competing firms. In this paper we give a concise overview of the different application areas of quantum telepathy. We find that these real-world problems can be modeled as a nonlocal game or its generalizations. We also discuss possible physical implementations. Quantum telepathy guarantees a quantum advantage via Bell's theorem and can directly solve real-world problems, such as reducing risk in high frequency trading or balancing data loads efficiently in ad hoc networks. Moreover, this quantum advantage can be physically realized with existing or near-term quantum hardware.
Abstract:Quantum telepathy is the concept of using quantum entanglement to solve real-world problems involving decision coordination between parties with restricted communication. One possible reason for this restriction is a latency constraint: some pairs of parties do not have enough time to communicate with each other before they have to produce their outputs. Example scenarios include high frequency trading and distributed systems. Another reason is physical or operational isolation: for some pairs of parties, there is an obstacle to communication. Example scenarios include locating a stray traveler by a rescue team and coordination within a network where nodes are owned by competing firms. In this paper we give a concise overview of the different application areas of quantum telepathy. We find that these real-world problems can be modeled as a nonlocal game or its generalizations. We also discuss possible physical implementations. Quantum telepathy guarantees a quantum advantage via Bell's theorem and can directly solve real-world problems, such as reducing risk in high frequency trading or balancing data loads efficiently in ad hoc networks. Moreover, this quantum advantage can be physically realized with existing or near-term quantum hardware.
arXiv:2603.10883 [quant-ph]
(or arXiv:2603.10883v2 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2603.10883 Focus to learn more arXiv-issued DOI via DataCite
https://doi.org/10.3969/j.issn.1007-5461.2026.04.003 Focus to learn more DOI(s) linking to related resources
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