Mutation in autocatalytic reaction networks
- 1 January 1992
- journal article
- Published by Springer Nature in Journal of Mathematical Biology
- Vol. 30 (6) , 597-631
- https://doi.org/10.1007/bf00948894
Abstract
A class of kinetic equations describing catalysed and template induced replication, and mutation is introduced. This ODE in its most general form is split into two vector fields, a replication and a mutation field. The mutation field is considered as a perturbation of the replicator equation. The perturbation expansion is a Taylor series in a mutation parameter λ. First, second and higher order contributions are computed by means of the conventional Rayleigh-Schrödinger approach. Qualitative shifts in the positions of rest points and limit cycles on the boundary of the physically meaningful part of concentration space are predicted from flow topologies. The results of the topological analysis are summarized in two theorems which turned out to be useful in applications: the rest point migration theorem (RPM) and the limit cycle migration theorem (LCM). Quantitative expressions for the shifts of rest points are computed directly from the perturbation expansion. The concept is applied to a collection of selected examples from biophysical chemistry and biology.Keywords
This publication has 34 references indexed in Scilit:
- RNA-catalysed synthesis of complementary-strand RNANature, 1989
- Random spin models and chemical kineticsThe Journal of Chemical Physics, 1987
- RNA as an EnzymeScientific American, 1986
- Polynucleotide evolution and branching processesBulletin of Mathematical Biology, 1985
- Lotka-Volterra equation and replicator dynamics: A two-dimensional classificationBiological Cybernetics, 1983
- Kinetics of ribonucleic acid replicationBiochemistry, 1983
- Stable Polymorphisms in a Selection Model with MutationSIAM Journal on Applied Mathematics, 1981
- The HypercycleThe Science of Nature, 1978
- A principle of natural self-organizationThe Science of Nature, 1977
- Selforganization of matter and the evolution of biological macromoleculesThe Science of Nature, 1971