A Bayesian Interpretation of First-Order Phase Transitions
Author
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Davis, Sergio
Author
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Peralta, Joaquín
Author
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Navarrete, Yasmín
Author
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González, Diego
Author
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Gutiérrez Gallardo, Gonzalo
Admission date
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2016-06-13T18:44:19Z
Available date
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2016-06-13T18:44:19Z
Publication date
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2015
Cita de ítem
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Found Phys (2016) 46:350–359
en_US
Identifier
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DOI 10.1007/s10701-015-9967-5
Identifier
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https://repositorio.uchile.cl/handle/2250/138759
General note
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Artículo de publicación ISI
en_US
Abstract
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In this work we review the formalism used in describing the thermodynamics
of first-order phase transitions from the point of view of maximum entropy
inference. We present the concepts of transition temperature, latent heat and entropy
difference between phases as emergent from the more fundamental concept of internal
energy, after a statistical inference analysis. We explicitly demonstrate this point of
view by making inferences on a simple game, resulting in the same formalism as in
thermodynamical phase transitions.We show that analogous quantities will inevitably
arise in any problem of inferring the result of a yes/no question, given two different
states of knowledge and information in the form of expectation values. This exposition
may help to clarify the role of these thermodynamical quantities in the context of
different first-order phase transitions such as the case of magnetic Hamiltonians (e.g.
the Potts model).