Burgers turbulence initialized by a regenerative impulse
Matthias Winkel
Stochastic Processes and their Applications, 2001, vol. 93, issue 2, 241-268
Abstract:
In this article we look at a one-dimensional infinitesimal particle system governed by the completely inelastic collision rule. Considering uniformly spread mass, we feed the system with initial velocities, so that when time evolves the corresponding velocity field fulfils the inviscid Burgers equation. More precisely, we suppose here that the initial velocities are zero, except for particles located on a stationary regenerative set for which the velocity is some given constant number. We give results of a large deviation type. First, we estimate the probability that a typical particle is located at time 1 at distance at least D from its initial position, when D tends to infinity. Its behaviour is related to the left tail of the gap measure of the regenerative set. We also show the same asymptotics for the tail of the shock interval length distribution. Second, we analyse the event that a given particle stands still at time T as T tends to infinity. The data to which we relate its behaviour are the right tail of the gap measure of the regenerative set. We conclude with some results on the shock structure.
Keywords: Inviscid; Burgers; equation; Random; initial; velocity; Regenerative; sets; Subordinators; Large; deviations (search for similar items in EconPapers)
Date: 2001
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Citations: View citations in EconPapers (1)
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