Exact relationships connect Barrow-Tsallis entropy parameters at Planck and cosmological scales, with uncertainty limited to current cosmographic parameter values.
Cosmographic Connection Between Cosmological And Planck Scales: The Barrow-Tsallis Entropy
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abstract
One of the fundamental challenges of quantum gravity is to understand how the microscopic degrees of freedom of the cosmological horizon shape the evolution of the Universe. One possible approach to this problem is based on the Barrow--Tsallis entropy. This entropy accounts for both quantum gravitational effects and the nonextensive effects inherent in any long-range interaction. Using a general method we developed for finding the parameters of cosmological models, we discovered a relationship between the parameter describing the microscopic structure of quantum foam and the parameter associated with macroscopic nonextensive effects. We also used our method for finding the parameters of cosmological models to evaluate the feasibility of using fractional derivatives to describe the late evolution of the Universe. The resulting relationships are exact. Therefore, the uncertainty in the relationship between the model parameters depends only on the current uncertainty in the values of the cosmographic parameters.
fields
gr-qc 1years
2026 1verdicts
UNVERDICTED 1representative citing papers
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Cosmographic Connection Between Cosmological And Planck Scales: The Barrow-Tsallis Entropy
Exact relationships connect Barrow-Tsallis entropy parameters at Planck and cosmological scales, with uncertainty limited to current cosmographic parameter values.