Max-plus stochastic linear systems describe a wide variety of non-linear queueing processes. The dynamics of these systems are dominated by a Max-plus analogue of the Lyupanov exponent the value of which depends on the structure of the underly-ing support graphs as well as the properties of the waiting-time distributions. For matrices whose associated weighted graphs have identically distributed edge weights (componentwise homogeneity) we are able to decouple these two effects and provide a sandwich of bounds for the Max-plus Lyupanov exponent relating it to some clas-sical properties of the support graph and some extreme value expectations of the waiting-time distributions. This sandwich inequality is then applied to products of componentw...
We analyze the effect of finite memory on the Lyapunov exponent of products of random matrices by co...
We study the top Lyapunov exponents of random products of positive 2×2 matrices and obtain an effici...
In this thesis I explore three new topics in Dynamical Systems. In Chapters 2 and 3 I investigate th...
Max-plus stochastic linear systems describe a wide variety of non-linear queueing processes. The dyn...
We introduce a class of stochastic production tree model, based on Petri nets, which admit a random ...
[[abstract]]Considers stochastic linear systems under the max-plus algebra. For such a system, the s...
In this paper we consider a particular class of linear systems under the max-plus algebra and derive...
Lyapunov exponents describe the asymptotic behavior of the singular values of large products of rand...
AbstractWe derive an upper bound for the largest Lyapunov exponent of a Markovian product of nonnega...
We develop the Lyapunov exponent of (max,+)-linear systems into a Taylor series. To this end, we ext...
We present a model for shared resources systems on which we define a performance parameter : $\gamma...
The (max,+)-algebra has been successfully applied to many areas of queueing theory, like stability a...
We consider the recursive equation "x(n + 1) = A(n)\Omega x(n)" where x(n + 1) and x(n) ar...
The resource network is a non-linear threshold model where vertices exchange resource in infinite di...
We compute spectra of large stochastic matrices W, defined on sparse random graphs in the configurat...
We analyze the effect of finite memory on the Lyapunov exponent of products of random matrices by co...
We study the top Lyapunov exponents of random products of positive 2×2 matrices and obtain an effici...
In this thesis I explore three new topics in Dynamical Systems. In Chapters 2 and 3 I investigate th...
Max-plus stochastic linear systems describe a wide variety of non-linear queueing processes. The dyn...
We introduce a class of stochastic production tree model, based on Petri nets, which admit a random ...
[[abstract]]Considers stochastic linear systems under the max-plus algebra. For such a system, the s...
In this paper we consider a particular class of linear systems under the max-plus algebra and derive...
Lyapunov exponents describe the asymptotic behavior of the singular values of large products of rand...
AbstractWe derive an upper bound for the largest Lyapunov exponent of a Markovian product of nonnega...
We develop the Lyapunov exponent of (max,+)-linear systems into a Taylor series. To this end, we ext...
We present a model for shared resources systems on which we define a performance parameter : $\gamma...
The (max,+)-algebra has been successfully applied to many areas of queueing theory, like stability a...
We consider the recursive equation "x(n + 1) = A(n)\Omega x(n)" where x(n + 1) and x(n) ar...
The resource network is a non-linear threshold model where vertices exchange resource in infinite di...
We compute spectra of large stochastic matrices W, defined on sparse random graphs in the configurat...
We analyze the effect of finite memory on the Lyapunov exponent of products of random matrices by co...
We study the top Lyapunov exponents of random products of positive 2×2 matrices and obtain an effici...
In this thesis I explore three new topics in Dynamical Systems. In Chapters 2 and 3 I investigate th...