Tsallis thermostatics as a statistical physics of random chains
arXiv:1610.07110 · doi:10.1103/PhysRevE.95.022103
Abstract
In this paper we point out that the generalized statistics of Tsallis-Havrda-Charvát can be conveniently used as a conceptual framework for statistical treatment of random chains. In particular, we use the path-integral approach to show that the ensuing partition function can be identified with the partition function of a fluctuating oriented random loop of arbitrary length and shape in a background scalar potential. To put some meat on the bare bones, we illustrate this with two statistical systems; Schultz-Zimm polymer and relativistic particle. Further salient issues such as the transformation properties of Tsallis' inverse-temperature parameter and a grandcanonical ensemble of fluctuating random loops related to the Tsallis-Havrda-Charvát statistics are also briefly discussed.
References in corpus (28)
- Perturbative Quantum Field Theory in the String-Inspired Formalism
- Field Theory Without Feynman Diagrams: One-Loop Effective Actions
- Nonextensive thermodynamic relations
- Tsallis' entropy maximization procedure revisited
- When do generalized entropies apply? How phase space volume determines entropy
- Generalized-ensemble Monte carlo method for systems with rough energy landscape
- Nonequilibrium Probabilistic Dynamics of the Logistic Map at the Edge of Chaos
- Equivalence of the four versions of Tsallis statistics
- Option Pricing Beyond Black-Scholes Based on Double-Fractional Diffusion
- PDF of Velocity Fluctuation in Turbulence by a Statistics based on Generalized Entropy
- Ideal gas in nonextensive optimal Lagrange multipliers formalism
- Superpositions of Probability Distributions
- Superstatistics approach to path integral for a relativistic particle
- Tsallis Statistics: Averages and a Physical Interpretation of the Lagrange Multiplier
- Simulated Annealing with Tsallis Weights - A Numerical Comparison
- On q-non-extensive statistics with non-Tsallisian entropy
- Critical Temperature and Nonextensivity in Long-range Interacting Lennard-Jones-like Fluids
- The emergence of Special and Doubly Special Relativity
- Entanglement and localization transitions in eigenstates of interacting chaotic systems
- A non self-referential expression of Tsallis' probability distribution function
- The unique non self-referential q-canonical distribution and the physical temperature derived from the maximum entropy principle in Tsallis statistics
- Self-organized criticality in a model of biological evolution with long range interactions
- Analysis of Velocity Fluctuation in Turbulence based on Generalized Statistics
- Perturbation Expansion for Option Pricing with Stochastic Volatility
- Two-dimensional dissipative maps at chaos threshold: Sensitivity to initial conditions and relaxation dynamics
- A note on bounded entropies
- Path-integral approach to the Wigner-Kirkwood expansion
- Local-time representation of path integrals
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- Coherent states for generalized uncertainty relations as Tsallis probability amplitudes: new route to non-extensive thermostatistics
- On Statistical Properties of Jizba-Arimitsu Hybrid Entropy
- Rescaling the nonadditivity parameter in Tsallis thermostatistics
- Role of chemical potential at kinetic freeze-out using Tsallis non-extensive statistics in proton-proton collisions at the Large Hadron Collider
- Analysis of Tsallis' classical partition function's poles
- Rescuing the MaxEnt treatment for -generalized entropies
- Verlinde's emergent gravity in an dimensional, non-additive Tsallis' scenario
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- Decoherence limit of quantum systems obeying generalized uncertainty principle: new paradigm for Tsallis thermostatistics