Let {Xi (t), t ≥ 0}, 1 ≤ i ≤ n be mutually independent centered Gaussian processes with almost surely continuous sample paths. We derive the exact asymptotics of P (∃t∈[0,T ]∀i=1,...,n Xi(t) > ) as u → ∞, for both locally stationary Xi’s and Xi’s with a non-constant generalized variance function. Additionally, we analyze properties of multidimensional counterparts of the Pickands and Piterbarg constants that appear in the derived asymptotics. Important by-products of this contribution are the vector-process extensions of the Piterbarg inequality, the Borell–TIS inequality, the Slepian lemma and the Pickands–Piterbarg lemma which are the main pillars of the extremal theory of vector-valued Gaussian processes
Let {ζm,k(κ)(t), t ≥ 0}, κ > 0 be random processes defined as the differences of two independent sta...
AbstractWe study the exact asymptotics of P(supt∈[0,S]X(t)>u), as u→∞, for centered Gaussian process...
Let {chi(k)(t), t >= 0} be a stationary chi-process with k degrees of freedom being independent o...
Let {X-i(t), t >= 0}, 1 <= i <= n be mutually independent centered Gaussian processes with ...
AbstractWe study the exact asymptotics of P(supt≥0IZ(t)>u), as u→∞, where IZ(t)={1t∫0tZ(s)dsfort>0Z(...
We consider a Gaussian stationary process with Pickands' conditions and evaluate an exact asymptotic...
Pickands constants play an important role in the exact asymptotic of extreme values for Gaussian sto...
The main result of this contribution is the derivation of the exact asymptotic behavior of the supre...
In this contribution we are concerned with the asymptotic behaviour, as u→∞, of P{supt∈[0,T]Xu(t)>u}...
Let {X-i(t), t >= 0}, 1 <= i <= n be independent centered stationary Gaussian processes wit...
This paper considers extreme values attained by a centered, multidimensional Gaussian process X(t) =...
Let {X (t), t >= 0} be a stationary Gaussian process with zero-mean and unit variance. A deep res...
Let $X(t)$, $t\in R$, be a $d$-dimensional vector-valued Brownian motion, $d\ge 1$. For all $b\in R^...
This contribution establishes exact tail asymptotics of sup((s,t)) is an element of E X(s,t) for a l...
AbstractThis paper considers extreme values attained by a centered, multidimensional Gaussian proces...
Let {ζm,k(κ)(t), t ≥ 0}, κ > 0 be random processes defined as the differences of two independent sta...
AbstractWe study the exact asymptotics of P(supt∈[0,S]X(t)>u), as u→∞, for centered Gaussian process...
Let {chi(k)(t), t >= 0} be a stationary chi-process with k degrees of freedom being independent o...
Let {X-i(t), t >= 0}, 1 <= i <= n be mutually independent centered Gaussian processes with ...
AbstractWe study the exact asymptotics of P(supt≥0IZ(t)>u), as u→∞, where IZ(t)={1t∫0tZ(s)dsfort>0Z(...
We consider a Gaussian stationary process with Pickands' conditions and evaluate an exact asymptotic...
Pickands constants play an important role in the exact asymptotic of extreme values for Gaussian sto...
The main result of this contribution is the derivation of the exact asymptotic behavior of the supre...
In this contribution we are concerned with the asymptotic behaviour, as u→∞, of P{supt∈[0,T]Xu(t)>u}...
Let {X-i(t), t >= 0}, 1 <= i <= n be independent centered stationary Gaussian processes wit...
This paper considers extreme values attained by a centered, multidimensional Gaussian process X(t) =...
Let {X (t), t >= 0} be a stationary Gaussian process with zero-mean and unit variance. A deep res...
Let $X(t)$, $t\in R$, be a $d$-dimensional vector-valued Brownian motion, $d\ge 1$. For all $b\in R^...
This contribution establishes exact tail asymptotics of sup((s,t)) is an element of E X(s,t) for a l...
AbstractThis paper considers extreme values attained by a centered, multidimensional Gaussian proces...
Let {ζm,k(κ)(t), t ≥ 0}, κ > 0 be random processes defined as the differences of two independent sta...
AbstractWe study the exact asymptotics of P(supt∈[0,S]X(t)>u), as u→∞, for centered Gaussian process...
Let {chi(k)(t), t >= 0} be a stationary chi-process with k degrees of freedom being independent o...