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Quantum Entanglement Speeds Up Secret Computations ⚡ экспресс

Original: "Quantum Private Distributed Matrix Multiplication With Degree Tables"
Quantum entanglement enables fast and secure multiplication of giant tables of numbers on remote servers.
Abstract

When you need to secretly multiply two huge matrices, you can break them into pieces and hand them out to servers. Normally, to keep the secret safe, you need a lot of servers. Quantum entanglement—a special connection between particles—lets you get by with fewer machines and protect your data better. Nature helps you keep a secret more firmly than any code can.

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When a computer can't handle multiplying two giant tables of numbers, they're sliced into tiny pieces and sent out to dozens of helper servers. For secret data, mathematical tricks are used so the helpers never see the original numbers. Usually, the higher the secrecy, the more servers you need.

The authors proposed using a special quantum propertyentanglement between the servers.

Entangled particles are always connected: measure one, and the state of the other is instantly determined. Einstein called this "spooky action at a distance."

Thanks to this, the servers, receiving only meaningless scraps, jointly compute the result. The number of servers is drastically reduced. Scientists worked out the optimal conditions and developed new families of codes.

Under imperfect conditions, the protection is reliable, though with trade-offs.

The most surprising part: any attempt to eavesdrop instantly destroys the entanglement — data interception becomes pointless.

Cloud services will be able to process confidential data — bank calculations, medical analyses — quickly and reliably. Einstein, a skeptic of entanglement, would be amazed. The ideas of Charles Bennett turned quantum weirdness into a powerful tool for privacy.

🎯 With quantum entanglement, eavesdropping on a transmission is impossible: any attempt instantly destroys the link and gives the spy away.

Scientists
Emmy NoetherJacob BekensteinStephen HawkingLudwig BoltzmannWolfgang PauliWilhelm Wien
Tags
entropy Standard Model
Laws
second law of thermodynamicsNoether's theoremBekenstein-Hawking entropyBoltzmann distributionfirst law of thermodynamicsspin–statistics theorem
Original: arXiv:2511.23406 · CC BY · bridge42worlds