On the Origin of Species Thermodynamics and the Black Hole - Tower Correspondence
arXiv:2406.17851 · doi:10.21468/SciPostPhys.18.3.083
Abstract
Species thermodynamics has been proposed in analogy to black hole thermodynamics. The entropy scales like an area and is given by the mere counting of the number of the species. In this work, we the constitutive relations of species thermodynamics and explain how those from standard thermodynamics. We consider configurations of species in thermal equilibrium inside a box of size , and show that the temperature of the system, which plays a crucial role, is always upper bounded above by the species scale . We highlight three relevant regimes: (i) when , and gravitational collapse is avoided, the system exhibits standard thermodynamics features, for example, with the entropy scaling like the volume of the box; (ii) in the limit we recover the rules of species thermodynamics with the entropy scaling like the area of the box; (iii) an intermediate regime with that avoids gravitational collapse and fulfills the Covariant Entropy Bound; this interpolates between the previous two regimes and its entropy is given simply in terms of the counting of the species contributing to the thermodynamic ensemble. This study also allows us to find a novel and independent bottom-up rationale for the Emergent String Conjecture. Finally, we present the as a generalization of the celebrated Black Hole - String Correspondence. This provides us with a robust framework to interpret the results of our thermodynamic investigation. Moreover, it allows us to qualitatively account for the entropy of black holes in terms of the degrees of freedom of the weakly coupled species in the tower.
v3: 61 pages, 5 figures; minor changes, typos corrected. Matches published version in SciPost
References in corpus (27)
- On the Geometry of the String Landscape and the Swampland
- The Swampland: Introduction and Review
- The String Landscape and the Swampland
- Lectures on the Swampland Program in String Compactifications
- Black Hole Bound on the Number of Species and Quantum Gravity at LHC
- The Weak Gravity Conjecture: A Review
- The Emergence Proposal in Quantum Gravity and the Species Scale
- IR/UV Mixing, Towers of Species and Swampland Conjectures
- Entropy Bound and Unitarity of Scattering Amplitudes
- Finiteness and the Swampland
- Moduli-dependent Species Scale
- EFT strings and emergence
- Dynamical Tadpoles, Stringy Cobordism, and the SM from Spontaneous Compactification
- Dynamical Cobordism Conjecture: Solutions for End-of-the-World Branes
- Emergence of Species Scale Black Hole Horizons
- Minimal Black Holes and Species Thermodynamics
- Shedding black hole light on the emergent string conjecture
- Dynamical Cobordism and the Beginning of Time: Supercritical Strings and Tachyon Condensation
- Lectures on the string landscape and the Swampland
- Species scale, worldsheet CFTs and emergent geometry
- Small Black Hole Explosions
- The correspondence between rotating black holes and fundamental strings
- Emergence of -terms in M-theory
- String Thermodynamics In and Out of Equilibrium: Boltzmann Equations and Random Walks
- Infinite Distances and Factorization
- The Tale of Three Scales: the Planck, the Species, and the Black Hole Scales
- High energy scattering and string/black hole transition
Cited by in corpus (11)
- Finiteness and the Emergence of Dualities
- Emergent Strings in Type IIB Calabi--Yau Compactifications
- Asymptotic safety, quantum gravity, and the swampland: a conceptual assessment
- Lectures in Quantum Gravity
- EFT & Species Scale: Friends or foes?
- Black Hole Entropy, Quantum Corrections and EFT Transitions
- Bulk/boundary Modular Quintessence and DESI
- The CFT Distance Conjecture and Tensionless String Limits in Quiver Gauge Theories
- A domain wall bound on anti-de Sitter vacua
- Background instability of quintessence model in light of entropy and distance conjecture
- Higher-Spin and Higher-Point Constraints on Stringy Amplitudes