We compare spot patterns generated by Turing mechanisms with those generated by replication cascades, in a model one-dimensional reaction-diffusion system. We determine the stability region of spot solutions in parameter space as a function of a natural control parameter (feed-rate) where degenerate patterns with different numbers of spots coexist for a fixed feed-rate. While it is possible to generate identical patterns via both mechanisms, we show that replication cascades lead to a wider choice of pattern profiles that can be selected through a tuning of the feed-rate, exploiting hysteresis and directionality effects of the different pattern pathways
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
This paper studies the pattern selection in a spatially-periodic problem of a simplified reaction-di...
Pattern formation in many biological systems takes place during growth of the underlying domain. We ...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
<div><p>We compare spot patterns generated by Turing mechanisms with those generated by replication ...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
Turing's theory of pattern formation has been used to describe the formation of self-organized perio...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
This paper studies the pattern selection in a spatially-periodic problem of a simplified reaction-di...
Pattern formation in many biological systems takes place during growth of the underlying domain. We ...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
<div><p>We compare spot patterns generated by Turing mechanisms with those generated by replication ...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
We compare spot patterns generated by Turing mechanisms with those generated by replication cascades...
Turing's theory of pattern formation has been used to describe the formation of self-organized perio...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction–diffusion systems are an intensively studied form of partial differential equation, frequen...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
Reaction-diffusion systems which have reaction term satisfying f(-q) = -f(q) tend strongly to form s...
This paper studies the pattern selection in a spatially-periodic problem of a simplified reaction-di...
Pattern formation in many biological systems takes place during growth of the underlying domain. We ...