In this paper we study the intrinsic noise effect on the switching behavior of a simple genetic circuit corresponding to the genetic toggle switch model. The numerical results obtained from a noisy mean-field model are compared to those obtained from the stochastic Gillespie simulation of the corresponding system of chemical reactions. Our results show that by using a two step reaction approach for modeling the transcription and translation processes one can make the system to lock in one of the steady states for exponentially long times
<div><p>Genetic switching driven by noise is a fundamental cellular process in genetic regulatory ne...
Positive and negative feedback loops, for example where a protein regulates its own transcription, p...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
In this paper we study the intrinsic noise effect on the switching behavior of a simple genetic circ...
Bistability arises within a wide range of biological systems from the A phage switch in bacteria to ...
Bistability arises within a wide range of biological systems from the λ phage switch in bacteria to ...
Noise can induce various dynamical behaviors in nonlinear systems. White noise perturbed systems hav...
Bistability arises within a wide range of biological systems from the λ phage switch in bacteria to ...
The genetic bi-stable switch (toggle switch) consists of two genes which repress one another through...
The stochastic mutual repressor model is analysed using perturbation methods. This simple model of a...
The genetic bi-stable switch (toggle switch) consists of two genes which repress one another through...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
Abstract. The stochastic mutual repressor model is analysed using perturba-tion methods. This simple...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
Turning genes on and off is a mechanism by which cells and tissues make phenotypic decisions. Gene n...
<div><p>Genetic switching driven by noise is a fundamental cellular process in genetic regulatory ne...
Positive and negative feedback loops, for example where a protein regulates its own transcription, p...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
In this paper we study the intrinsic noise effect on the switching behavior of a simple genetic circ...
Bistability arises within a wide range of biological systems from the A phage switch in bacteria to ...
Bistability arises within a wide range of biological systems from the λ phage switch in bacteria to ...
Noise can induce various dynamical behaviors in nonlinear systems. White noise perturbed systems hav...
Bistability arises within a wide range of biological systems from the λ phage switch in bacteria to ...
The genetic bi-stable switch (toggle switch) consists of two genes which repress one another through...
The stochastic mutual repressor model is analysed using perturbation methods. This simple model of a...
The genetic bi-stable switch (toggle switch) consists of two genes which repress one another through...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
Abstract. The stochastic mutual repressor model is analysed using perturba-tion methods. This simple...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...
Turning genes on and off is a mechanism by which cells and tissues make phenotypic decisions. Gene n...
<div><p>Genetic switching driven by noise is a fundamental cellular process in genetic regulatory ne...
Positive and negative feedback loops, for example where a protein regulates its own transcription, p...
Genetic switching driven by noise is a fundamental cellular process in genetic regulatory networks. ...