Reaction–Diffusion Systems

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Introduction to Mathematics for Computational Biology

Abstract

Many models and simulation algorithms of intracellular kinetics are usually based on the premise that diffusion is so fast that the concentrations of all the involved species are homogeneous in space. However, experimental measurements of intracellular diffusion constants indicate that the assumption of a homogeneous well-stirred cytosol is not necessarily valid even for small prokaryotic cells. In this chapter, we first present a mathematical description of the diffusion induced by concentration gradient. The diffusion coefficients and mechanical quantities as frictional forces are dependent on the local values of solutes concentration. We then present an algorithm implementing the model and simulating a reaction–diffusion system. The algorithm is an efficient modification of the well-known Gillespie algorithm, adapted for systems that are both reactive and diffusive. Second, we present mathematical models of drug release and drug diffusion.

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Correspondence to Paola Lecca .

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Lecca, P., Carpentieri, B. (2023). Reaction–Diffusion Systems. In: Introduction to Mathematics for Computational Biology. Techniques in Life Science and Biomedicine for the Non-Expert. Springer, Cham. https://doi.org/10.1007/978-3-031-36566-9_6

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