Mittag-Leffler Quantum Statistics and Thermodynamic Anomalies

Fuente: arXiv
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Main Authors: Seifi, Maryam, Ebadi, Zahra, Agahi, Hamzeh, Mehri-Dehnavi, Hossein, Mohammadzadeh, Hosein
Format: Preprint
Published: 2025
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author Seifi, Maryam
Ebadi, Zahra
Agahi, Hamzeh
Mehri-Dehnavi, Hossein
Mohammadzadeh, Hosein
author_facet Seifi, Maryam
Ebadi, Zahra
Agahi, Hamzeh
Mehri-Dehnavi, Hossein
Mohammadzadeh, Hosein
contents Building upon the framework established in our recent work [M. Seifi et al., Phys. Rev. E 111, 054114 (2025)], wherein a generalized Maxwell Boltzmann distribution was formulated using the Mittag Leffler function within the superstatistical formalism, we extend this approach to the quantum domain. Specifically, we introduce two statistical distributions,termed the Mittag Leffler Bose Einstein (MLBE) and Mittag Leffler Fermi Dirac (MLFD) distributions, constructed by generalizing the conventional Bose-Einstein and Fermi-Dirac distributions through the Mittag-Leffler function. This generalization incorporates a deformation parameter (α), which facilitates a continuous interpolation between bosonic and fermionic statistics, while inherently capturing nonequilibrium effects and generalized thermodynamic behavior. We analyze the thermodynamic geometry associated with these distributions and identify significant departures from standard statistical models. Notably, the MLBE distribution manifests a Bose-Einstein-like condensation even in the absence of interactions, whereas the MLFD distribution exhibits unconventional features, such as negative heat capacity in the low-temperature regime. These findings highlight the pivotal role of statistical deformation in determining emergent macroscopic thermodynamic phenomena.
format Preprint
id arxiv_https___arxiv_org_abs_2511_01926
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Mittag-Leffler Quantum Statistics and Thermodynamic Anomalies
Seifi, Maryam
Ebadi, Zahra
Agahi, Hamzeh
Mehri-Dehnavi, Hossein
Mohammadzadeh, Hosein
Statistical Mechanics
Building upon the framework established in our recent work [M. Seifi et al., Phys. Rev. E 111, 054114 (2025)], wherein a generalized Maxwell Boltzmann distribution was formulated using the Mittag Leffler function within the superstatistical formalism, we extend this approach to the quantum domain. Specifically, we introduce two statistical distributions,termed the Mittag Leffler Bose Einstein (MLBE) and Mittag Leffler Fermi Dirac (MLFD) distributions, constructed by generalizing the conventional Bose-Einstein and Fermi-Dirac distributions through the Mittag-Leffler function. This generalization incorporates a deformation parameter (α), which facilitates a continuous interpolation between bosonic and fermionic statistics, while inherently capturing nonequilibrium effects and generalized thermodynamic behavior. We analyze the thermodynamic geometry associated with these distributions and identify significant departures from standard statistical models. Notably, the MLBE distribution manifests a Bose-Einstein-like condensation even in the absence of interactions, whereas the MLFD distribution exhibits unconventional features, such as negative heat capacity in the low-temperature regime. These findings highlight the pivotal role of statistical deformation in determining emergent macroscopic thermodynamic phenomena.
title Mittag-Leffler Quantum Statistics and Thermodynamic Anomalies
topic Statistical Mechanics
url https://arxiv.org/abs/2511.01926