The Levy Walk is the process with continuous sample paths which arises from consecutive linear motions of i.i.d. lengths with i.i.d. directions. Assuming speed 1 and motions in the domain of beta-stable attraction, we prove functional limit theorems and derive governing pseudo-differential equations for the law of the walker's position. Both Levy Walk and its limit process are continuous and ballistic in the case beta epsilon(0,1). In the case beta epsilon (1,2), the scaling limit of the process is beta-stable and hence discontinuous. This result is surprising, because the scaling exponent 1/beta on the process level is seemingly unrelated to the scaling exponent 3-beta of the second moment. For beta=2, the scaling limit is Brownian m...
Kondratiev Y, Mishura Y, Shevchenko G. Limit theorems for additive functionals of continuous time ra...
Abstract. Let fSng be a random walk in the domain of attraction of a stable law Y, i.e. there exists...
For a given Levy process X = ( X t ) t 2 R + and for xed s 2 R + [f1g and t 2 R + we analyse the fut...
We consider super-diffusive Levy walks in d >= 2 dimensions when the duration of a single step, i.e....
Among Markovian processes, the hallmark of Levy flights is superdiffusion, or faster-than-Brownian d...
Semistable Levy motions have stationary independent increments with semistable distributions. They c...
Continuous time random walks combining diffusive and ballistic regimes are introduced to describe a ...
We construct the law of Levy processes conditioned to stay positive under general hypotheses. We obt...
We propose an analytical method to determine the shape of density profiles in the asymptotic long-ti...
We determine conditions under which a subordinated random walk of the form S⌊ N(n)⌋ tends to infinit...
We consider a continuous-time random walk which is defined as an interpolation of a random walk on a...
The standard Levy walk is performed by a particle that moves ballistically between randomly occurrin...
In this dissertation, we study Levy processes with a bounded number of largest jumps removed. The re...
In this paper we consider an aperiodic integer-valued random walk S and a process S* which is an har...
Lévy walks (LWs) define a fundamental class of finite velocity stochastic processes that can be intr...
Kondratiev Y, Mishura Y, Shevchenko G. Limit theorems for additive functionals of continuous time ra...
Abstract. Let fSng be a random walk in the domain of attraction of a stable law Y, i.e. there exists...
For a given Levy process X = ( X t ) t 2 R + and for xed s 2 R + [f1g and t 2 R + we analyse the fut...
We consider super-diffusive Levy walks in d >= 2 dimensions when the duration of a single step, i.e....
Among Markovian processes, the hallmark of Levy flights is superdiffusion, or faster-than-Brownian d...
Semistable Levy motions have stationary independent increments with semistable distributions. They c...
Continuous time random walks combining diffusive and ballistic regimes are introduced to describe a ...
We construct the law of Levy processes conditioned to stay positive under general hypotheses. We obt...
We propose an analytical method to determine the shape of density profiles in the asymptotic long-ti...
We determine conditions under which a subordinated random walk of the form S⌊ N(n)⌋ tends to infinit...
We consider a continuous-time random walk which is defined as an interpolation of a random walk on a...
The standard Levy walk is performed by a particle that moves ballistically between randomly occurrin...
In this dissertation, we study Levy processes with a bounded number of largest jumps removed. The re...
In this paper we consider an aperiodic integer-valued random walk S and a process S* which is an har...
Lévy walks (LWs) define a fundamental class of finite velocity stochastic processes that can be intr...
Kondratiev Y, Mishura Y, Shevchenko G. Limit theorems for additive functionals of continuous time ra...
Abstract. Let fSng be a random walk in the domain of attraction of a stable law Y, i.e. there exists...
For a given Levy process X = ( X t ) t 2 R + and for xed s 2 R + [f1g and t 2 R + we analyse the fut...