Abstract
Minimal protocell concepts have high intellectual and practical value. Following chemoton theory, developed by Tibor Gánti in 1971, we suggest that a minimal protocell satisfying all life criteria should consist of three subsystems: a metabolic network producing materials for the production of all three subsystems at the expense of the difference between food and waste products, a genetic subsystem based on template polymerization and a boundary subsystem consisting of a bilayer vesicle. All three subsystems are autocatalytic and the system as a whole (called chemoton) is also autocatalytic. The chemoton can undergo spatial reproduction in the right parameter domain. Various infrabiological systems can be constructed from any two subsystems; we review the experimental attempts aimed at such a goal. As the complexity of the realized systems increases, the problem of unwanted side reactions becomes more and more dramatic in non-enzymatic systems. No satisfactory solution to the problem of metabolite channeling is known.
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Abbreviations
- AL:
-
artificial life
- EC:
-
Enzyme Commission
- GARD:
-
graded autocatalysis replication domain
- PNA:
-
peptide nucleic acid
- SCM:
-
stochastic corrector model
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Szathmáry, E., Santos, M., Fernando, C. Evolutionary Potential and Requirements for Minimal Protocells. In: Walde, P. (eds) Prebiotic Chemistry. Topics in Current Chemistry, vol 259. Springer, Berlin, Heidelberg. https://doi.org/10.1007/tcc001
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DOI: https://doi.org/10.1007/tcc001
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