The evolution of cooperation in simple molecular replicators
In order for the first genomes to evolve, independent replicators had to act cooperatively, with some reducing their own replication rate to help copy others. It has been argued that limited diffusion explains this early cooperation. However, social evolution models have shown that limited diffusion...
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Format: | Journal article |
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Royal Society
2017
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author | Levin, S West, S |
author_facet | Levin, S West, S |
author_sort | Levin, S |
collection | OXFORD |
description | In order for the first genomes to evolve, independent replicators had to act cooperatively, with some reducing their own replication rate to help copy others. It has been argued that limited diffusion explains this early cooperation. However, social evolution models have shown that limited diffusion on its own often does not favour cooperation. Here we model early replicators using social evolution tools. We show that: (1) replicators can be considered to be cooperating as a result of kin selection; (2) limited diffusion on its own does not favour cooperation; (3) the addition of overlapping generations, likely a general trait of molecular replicators, promotes cooperation. These results suggest key life history features in the evolution of the genome, and that the same factors can favour cooperation across the entire tree of life. |
first_indexed | 2024-03-06T18:18:28Z |
format | Journal article |
id | oxford-uuid:05743fe0-f92c-489d-bfc8-fe0491d67cf1 |
institution | University of Oxford |
last_indexed | 2024-03-06T18:18:28Z |
publishDate | 2017 |
publisher | Royal Society |
record_format | dspace |
spelling | oxford-uuid:05743fe0-f92c-489d-bfc8-fe0491d67cf12022-03-26T08:57:16ZThe evolution of cooperation in simple molecular replicatorsJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:05743fe0-f92c-489d-bfc8-fe0491d67cf1Symplectic Elements at OxfordRoyal Society2017Levin, SWest, SIn order for the first genomes to evolve, independent replicators had to act cooperatively, with some reducing their own replication rate to help copy others. It has been argued that limited diffusion explains this early cooperation. However, social evolution models have shown that limited diffusion on its own often does not favour cooperation. Here we model early replicators using social evolution tools. We show that: (1) replicators can be considered to be cooperating as a result of kin selection; (2) limited diffusion on its own does not favour cooperation; (3) the addition of overlapping generations, likely a general trait of molecular replicators, promotes cooperation. These results suggest key life history features in the evolution of the genome, and that the same factors can favour cooperation across the entire tree of life. |
spellingShingle | Levin, S West, S The evolution of cooperation in simple molecular replicators |
title | The evolution of cooperation in simple molecular replicators |
title_full | The evolution of cooperation in simple molecular replicators |
title_fullStr | The evolution of cooperation in simple molecular replicators |
title_full_unstemmed | The evolution of cooperation in simple molecular replicators |
title_short | The evolution of cooperation in simple molecular replicators |
title_sort | evolution of cooperation in simple molecular replicators |
work_keys_str_mv | AT levins theevolutionofcooperationinsimplemolecularreplicators AT wests theevolutionofcooperationinsimplemolecularreplicators AT levins evolutionofcooperationinsimplemolecularreplicators AT wests evolutionofcooperationinsimplemolecularreplicators |