[图书][B] Generalized Renewal Processes
VV Buldygin, KH Indlekofer, OI Klesov, JG Steinebach… - 2018 - Springer
This chapter is organized as follows. In Sect. 8.2, generalized renewal processes
constructed from random sequences are studied and a number of results are proved on the …
constructed from random sequences are studied and a number of results are proved on the …
Some properties of asymptotic quasi-inverse functions and their applications I
V Buldygin, O Klesov, J Steinebach - Theory of Probability and …, 2005 - ams.org
We introduce the notions of asymptotic quasi-inverse functions and asymptotic inverse
functions as weaker versions of (quasi-) inverse functions, and study their main properties …
functions as weaker versions of (quasi-) inverse functions, and study their main properties …
On the φ-asymptotic behaviour of solutions of stochastic differential equations
VV Buldygin, OI Klesov, JG Steinebach… - 2008 - dspace.nbuv.gov.ua
In this paper we study the as asymptotic behaviour of the solution of the stochastic dfferential
equation dX (t)= g (X (t)) dt+ σ (X (t)) dW (t), X (0)= b> 0, where g and σ are positive …
equation dX (t)= g (X (t)) dt+ σ (X (t)) dW (t), X (0)= b> 0, where g and σ are positive …
Time-changed spectrally positive Lévy processes started from infinity
C Foucart, PS Li, X Zhou - 2021 - projecteuclid.org
Time-changed spectrally positive Levy processes started from infinity Page 1 Bernoulli 27(2), 2021,
1291–1318 https://doi.org/10.3150/20-BEJ1274 Time-changed spectrally positive Lévy processes …
1291–1318 https://doi.org/10.3150/20-BEJ1274 Time-changed spectrally positive Lévy processes …
Some asymptotic relations for the generalized inverse
D Djurčić, A Torgašev - Journal of mathematical analysis and applications, 2007 - Elsevier
In this paper we investigate the connection between the asymptotic relations of
subordination and the negligence with the generalized inverse function in the class of all …
subordination and the negligence with the generalized inverse function in the class of all …
Some properties of asymptotic quasi-inverse functions and their applications. II
V Buldygin, O Klesov, J Steinebach - Theory of Probability and …, 2005 - ams.org
We continue to study properties of functions which are asymptotic (quasi-) inverse for PRV
and POV functions. The equivalence of all quasi-inverses for POV functions is proved. Under …
and POV functions. The equivalence of all quasi-inverses for POV functions is proved. Under …
On some extensions of Karamata's theory and their applications
VV Buldygin, OI Klesov… - Publications de l'Institut …, 2006 - doiserbia.nb.rs
This is a survey of the authors' results on the properties and applications of some subclasses
of (so-called) O-regularly varying (ORV) functions. In particular, factorization and uniform …
of (so-called) O-regularly varying (ORV) functions. In particular, factorization and uniform …
On some properties of asymptotic quasi-inverse functions
V Buldygin, O Klesov, J Steinebach - Theory of Probability and …, 2008 - ams.org
A characterization of normalizing functions connected with the limiting behavior of ratios of
asymptotic quasi-inverse functions is discussed. For nondecreasing functions, conditions …
asymptotic quasi-inverse functions is discussed. For nondecreasing functions, conditions …
On factorization representations for Avakumović--Karamata functions with nondegenerate groups of regular points
VV Buldygin, OI Klesov, JG Steinebach - Analysis Mathematica, 2004 - Springer
Avakumović-Karamata functions f are generalized regularly varying functions (so--called
ORV functions) such that f*(λ)= limsup x→∞ f (λx)/f (x) is finite for all λ> 0. In this paper, we …
ORV functions) such that f*(λ)= limsup x→∞ f (λx)/f (x) is finite for all λ> 0. In this paper, we …
PRV property and the ϕ-asymptotic behavior of solutions of stochastic differential equations
VV Buldygin, OI Klesov, JG Steinebach - Lithuanian Mathematical Journal, 2007 - Springer
In this paper, we investigate the as asymptotic behavior of the solution of the stochastic
differential equation d X (t)= g (X (t)) dt+ σ (X (t)) dW (t), X (0)≢ 1, where g (·) and σ (·) are …
differential equation d X (t)= g (X (t)) dt+ σ (X (t)) dW (t), X (0)≢ 1, where g (·) and σ (·) are …