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Quantum Mpemba: Strong Entanglement Melts Faster ⚡ экспресс

Original: "Stronger Entanglement Dies Faster: Quantum Mpemba Effect in Dissipative Qubits"
· Zhilong Liu, Zehua Tian, Jieci Wang
arXiv:2605.23197 · 2026-05-22 · CC BY · ⏱ 1 min · Quantum Physics General Relativity
Quantum entanglement obeys the Mpemba paradox: the stronger the bond, the faster it vanishes.
Abstract

In classical physics, the Mpemba effect is known: hot water sometimes freezes faster than cold water. A similar weird behavior has been discovered in the quantum world: strongly entangled particles (linked at a distance) can lose this connection faster than weakly entangled ones. It's as if a hotter friendship cools down more quickly. This discovery will help manage the 'lifetime' of quantum devices.

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Ordinary water freezes as expected. But sometimes hot water turns to ice faster than cold—the Mpemba effect. Recently, a similar rule-breaking was found in quantum entanglement—the invisible link between particles discovered by Erwin Schrödinger. It turns out: the stronger this bond, the quicker it breaks under environmental influence.

The reason is that strong entanglement carries an excess of 'energy heat.' The environment, like a freezer, saps the heat, and the bond vanishes. But, as in the Mpemba paradox, 'hot' particles cool down more sharply and lose entanglement almost instantly—this was dubbed 'sudden death.'

Surprisingly, the effect for water is still not fully explained, while the quantum version has already been precisely derived mathematically. Controlling such 'thermal' decay will help extend the life of quantum computers. As entropy (disorder) increases, particles become more vulnerable—like an electron in hydrogen at a high orbit, ready to be knocked loose by the slightest push.

🎯 Erasto Mpemba, a Tanzanian schoolboy, noticed in 1963 that a hot ice cream mix froze faster than a cold one. His question led to a publication in a scientific journal.

Scientists
Jacob BekensteinStephen HawkingCharles-Augustin de CoulombJames Clerk MaxwellLudwig BoltzmannJohannes Rydberg
Tags
Water entropy hydrogen
Laws
second law of thermodynamicsBekenstein-Hawking entropyCoulomb's lawBoltzmann distributionRydberg formulafirst law of thermodynamics
Original: arXiv:2605.23197 · CC BY · bridge42worlds