Amplitude equation for a diffusion-reaction system: The reversible Sel'kov model
Source abstract
Abstract
For a model glycolytic diffusion-reaction system, an amplitude equation has been derived in the framework of a weakly nonlinear theory. The linear stability analysis of this amplitude equation interprets the structural transitions and stability of various forms of Turing structures. This amplitude equation also conforms to the expectation that time-invariant amplitudes in Turing structures are independent of complexing reaction with the activator species, whereas complexing reaction strongly influences Hopf-wave bifurcation.
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Research context
OpenAlex topics: Nonlinear Dynamics and Pattern Formation · Evolution and Genetic Dynamics · Spectroscopy and Quantum Chemical Studies
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Affiliations
University of the West of England (Frenchay Campus) Faculty of Computing, Engineering and Mathematical Sciences (Du Pont Building), , Bristol BS16 1QY, UK and 16 Ghanarajpur Jalapara, Post: Dhaniakhali, Dist. Hooghly, WB 712302, India
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