The domain synchronization of a cyclic Lotka-Volterra reaction diffusion mechanism is studied in a dilute solution. This is done by performing a number of molecular dynamics simulations, and by setting up a mathematical model that can account for the dynamics seen in the simulations. The simulations show that below a certain critical length the domain is synchronized, but for larger domains the system quickly becomes unsynchronized. A mathematical model based on the law of mass action and Fick's law will not reveal this critical length. However, if an ad hoc Gaussian noise term is added to the model, it resemble the synchronization phenomena seen in the molecular dynamics simulations
Identification of the collective coordinates that describe rare events in complex molecular transiti...
Motivated by the spatial segregation of intracellular proteins between the cytoplasm and the cellula...
Simulations of biomolecular dynamics are commonly interpreted in terms of harmonic or quasi-harmonic...
A derivative of the Lotka-Volterra reaction diffusion mechanism was discussed using the framework of...
The aim of this thesis is to investigate systems of interacting nonlinear oscillators. We analyze no...
We present a model of pattern formation in reaction-diffusion systems that is based on coupling betw...
Reaction-diffusion systems can describe a wide class of rhythmic spatiotemporal patterns observed in...
We formulate and investigate a relatively new modeling paradigm by which spatially segregated dynami...
Reaction-diffusion equations are ubiquitous as models of biological pattern formation. In a recent p...
The dynamics of collective protein motions derived from Molecular Dynamics simulations have been stu...
Understanding how patterns and travelling waves form in chemical and biological reaction-diffusion m...
In spatially restricted media, interactions between particles and local fluctuations of density can ...
International audienceWe focus on the long time behavior of complex networks of reaction-diffusion s...
<div><p>(A) Shows the synchronisation mechanism for the case of three interacting <i>Dictyostelium</...
Reactiondiffusion systems are mathematical models that describe how the concentration of one or more...
Identification of the collective coordinates that describe rare events in complex molecular transiti...
Motivated by the spatial segregation of intracellular proteins between the cytoplasm and the cellula...
Simulations of biomolecular dynamics are commonly interpreted in terms of harmonic or quasi-harmonic...
A derivative of the Lotka-Volterra reaction diffusion mechanism was discussed using the framework of...
The aim of this thesis is to investigate systems of interacting nonlinear oscillators. We analyze no...
We present a model of pattern formation in reaction-diffusion systems that is based on coupling betw...
Reaction-diffusion systems can describe a wide class of rhythmic spatiotemporal patterns observed in...
We formulate and investigate a relatively new modeling paradigm by which spatially segregated dynami...
Reaction-diffusion equations are ubiquitous as models of biological pattern formation. In a recent p...
The dynamics of collective protein motions derived from Molecular Dynamics simulations have been stu...
Understanding how patterns and travelling waves form in chemical and biological reaction-diffusion m...
In spatially restricted media, interactions between particles and local fluctuations of density can ...
International audienceWe focus on the long time behavior of complex networks of reaction-diffusion s...
<div><p>(A) Shows the synchronisation mechanism for the case of three interacting <i>Dictyostelium</...
Reactiondiffusion systems are mathematical models that describe how the concentration of one or more...
Identification of the collective coordinates that describe rare events in complex molecular transiti...
Motivated by the spatial segregation of intracellular proteins between the cytoplasm and the cellula...
Simulations of biomolecular dynamics are commonly interpreted in terms of harmonic or quasi-harmonic...