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Optimal transport and anomalous thermal relaxations
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We study connections between optimal transport and anomalous thermal relaxations. A prime example of anomalous thermal relaxations is the Mpemba effect, which occurs when a hot system overtakes an identical warm system and cools down faster. Conversely, optimal transport is a resource-efficient way to transport the source distribution to a target distribution in a finite time. By "a resource-efficient way," what is often meant is with the least amount of entropy production. Our paradigm for a continuum system is a particle diffusing on a potential landscape, while for a discrete system, we use a three-state Markov jump process. In the continuous case, the Mpemba effect is generically associated with high entropy production. As such, at large yet finite times, the system evolution toward the target is not optimal in this respect. However, in the discrete case, we show that for specific dynamics, the optimal transport and the strong variant of the Mpemba effect can occur for the same relaxation protocol.
Forward citations
Cited by 2 Pith papers
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Conserved quantities enable the quantum Mpemba effect in weakly open systems
Weakly open quantum spins with more than one conserved quantity can exhibit quantum Mpemba crossings between thermal states; with energy as the only conserved quantity they do not.
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Quantum Mpemba Effects from Symmetry Perspectives
A review arguing that the quantum Mpemba effect in closed systems is driven by unequal thermalization rates of different symmetry sectors, with entanglement asymmetry and charge variance playing complementary roles.
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