Tempered stable laws as random walk limits
Arijit Chakrabarty, Mark M. Meerschaert

TL;DR
This paper introduces random walk models that converge to tempered stable laws, which modify stable laws by reducing large jumps, providing a physical basis for phenomena in statistical physics.
Contribution
It develops new random walk models that converge to tempered stable laws under a triangular array scheme, linking probabilistic models to physical applications.
Findings
Models converge to tempered stable laws
Retain power law behavior at infinity
Applicable to statistical physics phenomena
Abstract
Stable laws can be tempered by modifying the L\'evy measure to cool the probability of large jumps. Tempered stable laws retain their signature power law behavior at infinity, and infinite divisibility. This paper develops random walk models that converge to a tempered stable law under a triangular array scheme. Since tempered stable laws and processes are useful in statistical physics, these random walk models can provide a basic physical model for the underlying physical phenomena.
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Taxonomy
TopicsStochastic processes and statistical mechanics · Stochastic processes and financial applications · Theoretical and Computational Physics
