We describe a quantitative modelling and analysis approach for signal transduction networks. We illustrate the approach with an example, the RKIP inhibited ERK pathway [CSK+03]. Our models are high level descriptions of continuous time Markov chains: proteins are modelled by synchronous processes and reactions by transitions. Concentrations are modelled by discrete, abstract quantities. The main advantage of our approach is that using a (continuous time) stochastic logic and the PRISM model checker, we can perform quantitative analysis such as what is the probability that if a concentration reaches a certain level, it will remain at that level thereafter? or how does varying a given reaction rate affect that probability? We also perform s...
International audienceABSTRACT: Mathematical modeling is used as a Systems Biology tool to answer bi...
The communication within a cell is taken care of by an intriguing system of ‘messages in molecular b...
Living systems are inherently stochastic and operate in a noisy environment: in single cells, reacti...
We describe a quantitative modelling and analysis approach for signal transduction networks. We illu...
We describe a new modelling and analysis approach for signal transduction networks in the presence ...
Abstract. We describe a new modelling and analysis approach for signal transduction networks in the ...
We describe a new modelling and analysis approach for signal transduction networks in the presence ...
This paper examines the influence of the Raf Kinase Inhibitor Protein (RKIP) on the Extracellular si...
We apply quantitative formal methods to a domain from the life sciences: biochemical signalling path...
The stochastic dynamics of biochemical reaction networks can be modeled using a number of succinct f...
We observe the phenomenon of stochastic resonant signaling in signal amplification enzyme cascades, ...
The stochastic dynamics of biochemical reaction networks can be modeled using a number of succinct f...
AbstractThe stochastic dynamics of biochemical reaction networks can be modeled using a number of su...
Modelling of the dynamics of biochemical reaction networks typically proceeds by solving ordinary di...
The MAPK (mitogen-activated protein kinase) or its synonymous ERK (extracellular signal regulated ki...
International audienceABSTRACT: Mathematical modeling is used as a Systems Biology tool to answer bi...
The communication within a cell is taken care of by an intriguing system of ‘messages in molecular b...
Living systems are inherently stochastic and operate in a noisy environment: in single cells, reacti...
We describe a quantitative modelling and analysis approach for signal transduction networks. We illu...
We describe a new modelling and analysis approach for signal transduction networks in the presence ...
Abstract. We describe a new modelling and analysis approach for signal transduction networks in the ...
We describe a new modelling and analysis approach for signal transduction networks in the presence ...
This paper examines the influence of the Raf Kinase Inhibitor Protein (RKIP) on the Extracellular si...
We apply quantitative formal methods to a domain from the life sciences: biochemical signalling path...
The stochastic dynamics of biochemical reaction networks can be modeled using a number of succinct f...
We observe the phenomenon of stochastic resonant signaling in signal amplification enzyme cascades, ...
The stochastic dynamics of biochemical reaction networks can be modeled using a number of succinct f...
AbstractThe stochastic dynamics of biochemical reaction networks can be modeled using a number of su...
Modelling of the dynamics of biochemical reaction networks typically proceeds by solving ordinary di...
The MAPK (mitogen-activated protein kinase) or its synonymous ERK (extracellular signal regulated ki...
International audienceABSTRACT: Mathematical modeling is used as a Systems Biology tool to answer bi...
The communication within a cell is taken care of by an intriguing system of ‘messages in molecular b...
Living systems are inherently stochastic and operate in a noisy environment: in single cells, reacti...