AbstractMost Markov chains that describe networks of stochastic reactions have a huge state space. This makes exact analysis infeasible and hence the only viable approach, apart from simulation, is approximation. In this paper we derive a product form approximation for the transient probabilities of such Markov chains. The approximation can be interpreted as a set of interacting time inhomogeneous Markov chains with one chain for every reactant of the system. Consequently, the computational complexity grows only linearly in the number of reactants and the approximation can be carried out for Markov chains with huge state spaces. Several numerical examples are presented to illustrate the approach
In this talk, we present stochastic modeling and computational methods for the time-evolution of rea...
We consider a simple and widely used method for evaluating quasistationary distributions of continuo...
International audienceWe consider Stochastic Automata Networks (SAN) in continuous time and we prove...
AbstractMost Markov chains that describe networks of stochastic reactions have a huge state space. T...
Abstract. In cell processes, such as gene regulation or cell differenti-ation, stochasticity often p...
One of the most widely used technique to obtain transient measures is the uniformization method. How...
We study time-bounded probabilistic reachability for Chemical Reaction Networks (CRNs) using the Lin...
Markovian models play a pivotal role in system performance evaluation field. Several high level form...
A reaction network is a chemical system involving multiple reactions and chemical species. Stochasti...
We show that discrete distributions on the d-dimensional non-negative integer lattice can be approxi...
We consider stochastic descriptions of chemical reaction networks in which there are both fast and s...
In chemical reaction networks (CRNs) with stochastic semantics based on continuous-time Markov chain...
In the last few years some novel approaches have been developed to analyse Markovian stochastic mode...
Complex computer systems, from peer-to-peer networks to the spreading of computer virus epidemics, c...
In this paper we develop a reduction method for multiple time scale stochastic reaction networks. Wh...
In this talk, we present stochastic modeling and computational methods for the time-evolution of rea...
We consider a simple and widely used method for evaluating quasistationary distributions of continuo...
International audienceWe consider Stochastic Automata Networks (SAN) in continuous time and we prove...
AbstractMost Markov chains that describe networks of stochastic reactions have a huge state space. T...
Abstract. In cell processes, such as gene regulation or cell differenti-ation, stochasticity often p...
One of the most widely used technique to obtain transient measures is the uniformization method. How...
We study time-bounded probabilistic reachability for Chemical Reaction Networks (CRNs) using the Lin...
Markovian models play a pivotal role in system performance evaluation field. Several high level form...
A reaction network is a chemical system involving multiple reactions and chemical species. Stochasti...
We show that discrete distributions on the d-dimensional non-negative integer lattice can be approxi...
We consider stochastic descriptions of chemical reaction networks in which there are both fast and s...
In chemical reaction networks (CRNs) with stochastic semantics based on continuous-time Markov chain...
In the last few years some novel approaches have been developed to analyse Markovian stochastic mode...
Complex computer systems, from peer-to-peer networks to the spreading of computer virus epidemics, c...
In this paper we develop a reduction method for multiple time scale stochastic reaction networks. Wh...
In this talk, we present stochastic modeling and computational methods for the time-evolution of rea...
We consider a simple and widely used method for evaluating quasistationary distributions of continuo...
International audienceWe consider Stochastic Automata Networks (SAN) in continuous time and we prove...