
TL;DR
This paper explores how noncommutative fuzzy geometry affects thermodynamic properties of ideal gases, revealing unique behaviors in heat capacities and interparticle potentials compared to classical geometries, with implications for thermal reduction mechanisms.
Contribution
It provides a detailed analysis of thermodynamics on fuzzy spacetime, highlighting differences in heat capacities and interparticle interactions due to noncommutativity, including relativistic cases.
Findings
Heat capacities differ for bosons and fermions on fuzzy spheres.
Noncommutativity enhances statistical interparticle attraction or repulsion.
High-temperature limits lead to classical behavior and thermal reduction.
Abstract
We investigate the thermodynamics of non-relativistic and relativistic ideal gases on the spacetime with noncommutative fuzzy geometry. We first find that the heat capacities of the non-relativistic ideal boson and fermion on the fuzzy two-sphere have different values, contrast to that on the commutative geometry. We calculate the "statistical interparticle potential" therein and interprete this property as a result that the non-commutativity of the fuzzy sphere has an inclination to enhance the statistical "attraction (repulsion) interparticle potential" between boson (fermion). We also see that at high temperature the heat capacity approaches to zero. We next evaluate the heat capacities of the non-relativistic ideal boson and fermion on the product of the 1+D (with D=2,3) Minkowski spacetime by a fuzzy two-sphere and see that the fermion capacity could be a decreasing function of…
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