This paper deals with the problem of obtaining methods to compute the distribution of the maximum of a one-parameter stochastic process on a fixed interval, mainly in the Gaussian case. The main point is the relationship between the values of the maximum and crossings of the paths, via the so-called Rice’s formulae for the factorial moments of crossings. We prove that for some general classes of Gaussian process the so-called ”Rice series ” is convergent and can be used for to compute the distribution of the maximum. It turns out that the formulae are adapted to the numerical computation of this distribution and becomes more efficient than other nu-merical methods, namely simulation of the paths or standard bounds on the tails of the distri...
The exact distribution of extremes of a non-gaussian stationary discrete process is obtained and the...
In this article, the problem of the number of spikes (level crossings) of the stationary narrowband ...
Let T be the first time a stochastic process {X(t)} drops a units below its maximum to date. We dete...
This paper uses the Rice method [18] to give bounds to the distribution of the maximum of a smooth...
We describe and compare how methods based on the classical Rice’s formula for the expected number, a...
In this paper we are interested in the distribution of the maximum, or the maximum of the absolute v...
Numerous examples of applications from very diverse fields (Medicine, Astrophysics, Statistics, etc....
AbstractWe study the probability distribution F(u) of the maximum of smooth Gaussian fields defined ...
Abstract. We study the tails of the distribution of the maximum of a stationary Gaussian process on ...
Published at http://dx.doi.org/10.1214/105051604000000602 in the Annals of Applied Probability (http...
bution of the Maximum. Let I be a compact d-dimensional manifold, X: I → R a Gaussian process with r...
The purpose of this research is to find the asymptotically exact expressions for the distribution fu...
The purpose of this research is to find the asymptotically exact expressions for the distribution fu...
AbstractIn this article, the problem of the number of spikes (level crossings) of the stationary nar...
In this paper we study the asymptotic joint behavior of the maximum and the partial sum of a multiva...
The exact distribution of extremes of a non-gaussian stationary discrete process is obtained and the...
In this article, the problem of the number of spikes (level crossings) of the stationary narrowband ...
Let T be the first time a stochastic process {X(t)} drops a units below its maximum to date. We dete...
This paper uses the Rice method [18] to give bounds to the distribution of the maximum of a smooth...
We describe and compare how methods based on the classical Rice’s formula for the expected number, a...
In this paper we are interested in the distribution of the maximum, or the maximum of the absolute v...
Numerous examples of applications from very diverse fields (Medicine, Astrophysics, Statistics, etc....
AbstractWe study the probability distribution F(u) of the maximum of smooth Gaussian fields defined ...
Abstract. We study the tails of the distribution of the maximum of a stationary Gaussian process on ...
Published at http://dx.doi.org/10.1214/105051604000000602 in the Annals of Applied Probability (http...
bution of the Maximum. Let I be a compact d-dimensional manifold, X: I → R a Gaussian process with r...
The purpose of this research is to find the asymptotically exact expressions for the distribution fu...
The purpose of this research is to find the asymptotically exact expressions for the distribution fu...
AbstractIn this article, the problem of the number of spikes (level crossings) of the stationary nar...
In this paper we study the asymptotic joint behavior of the maximum and the partial sum of a multiva...
The exact distribution of extremes of a non-gaussian stationary discrete process is obtained and the...
In this article, the problem of the number of spikes (level crossings) of the stationary narrowband ...
Let T be the first time a stochastic process {X(t)} drops a units below its maximum to date. We dete...