Evolution of protein synthesis in a lattice model of replicators

The traditional chemical-kinetics approach to the study of prebiotic evolution cannot explain the evolution of protein synthesis in a homogeneous population of self-replicating molecules, because the invasion of a resident population of simpler, template-directed replicators by mutant protein-assist...

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Veröffentlicht in:	Physical review letters 2002-10, Vol.89 (18), p.188101-188101, Article 188101
Hauptverfasser:	Rosas, A, Ferreira, C P, Fontanari, J F
Format:	Artikel
Sprache:	eng
Schlagworte:	Models, Biological Nucleic Acids - biosynthesis Nucleic Acids - genetics Protein Biosynthesis Proteins - genetics
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creator	Rosas, A Ferreira, C P Fontanari, J F
description	The traditional chemical-kinetics approach to the study of prebiotic evolution cannot explain the evolution of protein synthesis in a homogeneous population of self-replicating molecules, because the invasion of a resident population of simpler, template-directed replicators by mutant protein-assisted replicators is deemed impossible. Approaching this problem in a spatial cellular automaton framework, we argue here that in such a setting evolution of protein synthesis is a likely event. In addition, we show that the onset of invasion may be viewed as a nonequilibrium phase transition, that can be characterized quantitatively by a set of critical exponents.
doi_str_mv	10.1103/PhysRevLett.89.188101
format	Article
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source	MEDLINE; APS: American Physical Society E-Journals (Physics)
subjects	Models, Biological Nucleic Acids - biosynthesis Nucleic Acids - genetics Protein Biosynthesis Proteins - genetics
title	Evolution of protein synthesis in a lattice model of replicators
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