Social evolution and genetic interactions in the short and long term

Theoretical Population Biology
Jeremy Van Cleve

Abstract

The evolution of social traits remains one of the most fascinating and feisty topics in evolutionary biology even after half a century of theoretical research. W.D. Hamilton shaped much of the field initially with his 1964 papers that laid out the foundation for understanding the effect of genetic relatedness on the evolution of social behavior. Early theoretical investigations revealed two critical assumptions required for Hamilton's rule to hold in dynamical models: weak selection and additive genetic interactions. However, only recently have analytical approaches from population genetics and evolutionary game theory developed sufficiently so that social evolution can be studied under the joint action of selection, mutation, and genetic drift. We review how these approaches suggest two timescales for evolution under weak mutation: (i) a short-term timescale where evolution occurs between a finite set of alleles, and (ii) a long-term timescale where a continuum of alleles are possible and populations evolve continuously from one monomorphic trait to another. We show how Hamilton's rule emerges from the short-term analysis under additivity and how non-additive genetic interactions can be accounted for more generally. This short...Continue Reading

References

Oct 1, 1978·Theoretical Population Biology·L L Cavalli-Sforza, M W Feldman
Aug 1, 1977·Theoretical Population Biology·G OsterD Cohen
Apr 1, 1975·Theoretical Population Biology·G A Watterson
Oct 1, 1991·Genetical Research·M Slatkin
Jan 1, 1991·Journal of Molecular Evolution·M Long, J H Gillespie
Jul 21, 1991·Journal of Theoretical Biology·U Motro
Jan 1, 1990·Journal of Mathematical Biology·M Notohara
May 1, 1988·Oral Surgery, Oral Medicine, and Oral Pathology·B B Harsanyi, A Larsson
Jan 1, 1988·Journal of Mathematical Biology·U Liberman
Feb 12, 1971·Nature·M Kimura, T Ohta
Apr 1, 1972·Annals of Human Genetics·G R Price
Aug 1, 1970·Nature·G R Price
Jul 1, 1964·Journal of Theoretical Biology·W D Hamilton
Jul 1, 1964·Journal of Theoretical Biology·W D Hamilton
Dec 1, 1966·Genetical Research·W G Hill, A Robertson
Apr 1, 1983·Theoretical Population Biology·J H Gillespie
Aug 21, 1982·Journal of Theoretical Biology·M ToroR E Michod
Feb 21, 1981·Journal of Theoretical Biology·R Abugov, R E Michod
Jul 1, 1981·Social Science & Medicine. Part B, Medical Anthropology·E K Feierman
Mar 27, 1981·Science·R Axelrod, W D Hamilton
Jan 1, 1996·Journal of Mathematical Biology·P Hammerstein
Jan 1, 1996·Journal of Mathematical Biology·U Dieckmann, R Law
May 7, 1996·Journal of Theoretical Biology·P D Taylor, S A Frank
Apr 7, 1997·Journal of Theoretical Biology·I EshelE Sansone
Jun 6, 1998·Theoretical Population Biology·J Wakeley
Oct 21, 1998·Journal of Theoretical Biology·T Day, P D Taylor
Nov 5, 1998·Proceedings. Biological Sciences·S A Frank
Nov 10, 2000·Science·M Lynch, J S Conery
Mar 13, 2001·Theoretical Population Biology·I Eshel, M W Feldman
May 2, 2001·Proceedings of the National Academy of Sciences of the United States of America·J W Thornton
Jan 15, 2003·Proceedings of the National Academy of Sciences of the United States of America·Igor M RouzineJohn M Coffin
Feb 10, 2004·Theoretical Population Biology·François Rousset, Ophélie Ronce
Apr 9, 2004·Nature·Martin A NowakDrew Fudenberg
Sep 3, 2004·Genetics·Claus O Wilke
Dec 14, 2004·Proceedings. Biological Sciences·Geoff Wild, Peter D Taylor
Jul 27, 2005·Proceedings of the National Academy of Sciences of the United States of America·Lorens A ImhofMartin A Nowak
Jul 28, 2005·Journal of Theoretical Biology·L A BachF B Christiansen
Oct 26, 2005·Journal of Theoretical Biology·Christoph HauertMichael Doebeli
Feb 8, 2006·Theoretical Population Biology·Nicolas ChampagnatSylvie Méléard
Aug 1, 1981·Proceedings of the National Academy of Sciences of the United States of America·M K UyenoyamaL D Mueller
Aug 1, 1984·Proceedings of the National Academy of Sciences of the United States of America·M I Freidlin
May 17, 2006·Trends in Ecology & Evolution·Benjamin KerrMarcus W Feldman

❮ Previous
Next ❯

Citations

Jan 29, 2016·Journal of the Royal Society, Interface·Jorge PeñaArne Traulsen
Jan 6, 2016·Philosophical Transactions of the Royal Society of London. Series B, Biological Sciences·Erol Akçay, Jeremy Van Cleve
Jul 8, 2015·Journal of Theoretical Biology·Jorge PeñaLaurent Lehmann
May 20, 2015·Theoretical Population Biology·Laurent Lehmann, Noah A Rosenberg
May 9, 2015·Journal of Theoretical Biology·Benjamin Allen, Martin A Nowak
Jun 11, 2016·Evolution; International Journal of Organic Evolution·Laurent LehmannJeremy Van Cleve
Aug 22, 2016·Journal of Theoretical Biology·Daniel CooneyCarl Veller
Aug 16, 2016·PLoS Computational Biology·Jorge PeñaArne Traulsen
Dec 20, 2018·Royal Society Open Science·Darragh HareH Kern Reeve
Jul 22, 2019·Evolution; International Journal of Organic Evolution·Charles Mullon, Laurent Lehmann
Nov 16, 2018·Journal of Mathematical Biology·Benjamin Allen, Alex McAvoy
Jul 26, 2017·Scientific Reports·Miguel Dos Santos, Jorge Peña
May 18, 2017·Proceedings of the National Academy of Sciences of the United States of America·Martin A NowakEdward O Wilson
Nov 24, 2016·Mathematical Biosciences and Engineering : MBE·Minette HerreraJoel Nishimura
Sep 29, 2017·Integrative and Comparative Biology·Jeremy Van Cleve
Feb 4, 2021·Journal of Mathematical Biology·Alex McAvoy, Benjamin Allen
Jan 29, 2021·Journal of Theoretical Biology·Piret AvilaLaurent Lehmann

❮ Previous
Next ❯

Related Concepts

Related Feeds

Alzheimer's Disease: Genetics

Alzheimer's disease is a neurodegenerative disease. Discover genetic and epigenetic aspects of Alzheimer’s disease, including genetic markers and genomic structural variations with this feed.

Related Papers

Journal of Evolutionary Biology
H G Spencer, Marcus W Feldman
Philosophical Transactions of the Royal Society of London. Series B, Biological Sciences
Laurent Lehmann, François Rousset
© 2021 Meta ULC. All rights reserved