Searching for Sympatric Speciation in the Genomic Era
Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation reveal complex histories of secondary gene flow from outgroups into the radiation. In cont...
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Published in | BioEssays Vol. 41; no. 7; pp. e1900047 - n/a |
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Main Authors | , , |
Format | Journal Article |
Language | English |
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01.07.2019
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Abstract | Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation reveal complex histories of secondary gene flow from outgroups into the radiation. In contrast, the rich theoretical literature on this process distinguishes among a diverse range of models based on simple genetic histories and different types of reproductive isolating barriers. Thus, there is a need to revisit how to connect theoretical models of sympatric speciation and their predictions to empirical case studies in the face of widespread gene flow. Here, theoretical differences among different types of sympatric speciation and speciation‐with‐gene‐flow models are reviewed and summarized, and genomic analyses are proposed for distinguishing which models apply to case studies based on the timing and function of adaptive introgression. Investigating whether secondary gene flow contributed to reproductive isolation is necessary to test whether predictions of theory are ultimately borne out in nature.
Sympatric speciation means two different things to empirical and theoretical biologists. Recent genomic analyses of classic sympatric speciation examples reveal complex histories of secondary gene flow from outgroups. It is argued that reconciling diverse theoretical models with existing empirical examples requires investigating the role that gene flow played in the process. |
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AbstractList | Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation reveal complex histories of secondary gene flow from outgroups into the radiation. In contrast, the rich theoretical literature on this process distinguishes among a diverse range of models based on simple genetic histories and different types of reproductive isolating barriers. Thus, there is a need to revisit how to connect theoretical models of sympatric speciation and their predictions to empirical case studies in the face of widespread gene flow. Here, theoretical differences among different types of sympatric speciation and speciation-with-gene-flow models are reviewed and summarized, and genomic analyses are proposed for distinguishing which models apply to case studies based on the timing and function of adaptive introgression. Investigating whether secondary gene flow contributed to reproductive isolation is necessary to test whether predictions of theory are ultimately borne out in nature. Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation reveal complex histories of secondary gene flow from outgroups into the radiation. In contrast, the rich theoretical literature on this process distinguishes among a diverse range of models based on simple genetic histories and different types of reproductive isolating barriers. Thus, there is a need to revisit how to connect theoretical models of sympatric speciation and their predictions to empirical case studies in the face of widespread gene flow. Here, theoretical differences among different types of sympatric speciation and speciation‐with‐gene‐flow models are reviewed and summarized, and genomic analyses are proposed for distinguishing which models apply to case studies based on the timing and function of adaptive introgression. Investigating whether secondary gene flow contributed to reproductive isolation is necessary to test whether predictions of theory are ultimately borne out in nature. Sympatric speciation means two different things to empirical and theoretical biologists. Recent genomic analyses of classic sympatric speciation examples reveal complex histories of secondary gene flow from outgroups. It is argued that reconciling diverse theoretical models with existing empirical examples requires investigating the role that gene flow played in the process. Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation reveal complex histories of secondary gene flow from outgroups into the radiation. In contrast, the rich theoretical literature on this process distinguishes among a diverse range of models based on simple genetic histories and different types of reproductive isolating barriers. Thus, there is a need to revisit how to connect theoretical models of sympatric speciation and their predictions to empirical case studies in the face of widespread gene flow. Here, theoretical differences among different types of sympatric speciation and speciation‐with‐gene‐flow models are reviewed and summarized, and genomic analyses are proposed for distinguishing which models apply to case studies based on the timing and function of adaptive introgression. Investigating whether secondary gene flow contributed to reproductive isolation is necessary to test whether predictions of theory are ultimately borne out in nature. Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic reanalyses of classic examples of sympatric speciation have revealed complex histories of secondary gene flow from outgroups into the radiation. In contrast, the rich theoretical literature on this process distinguishes among a diverse range of models based on simple genetic histories and different types of reproductive isolating barriers. Thus, there is a need to revisit how to connect theoretical models of sympatric speciation and their predictions to empirical case studies in the face of widespread gene flow. We summarize theoretical differences among different types of sympatric speciation and speciation-with-gene-flow models and propose genomic analyses for distinguishing which models apply to case studies based on the timing and function of adaptive introgression. Investigating whether secondary gene flow contributed to reproductive isolation is necessary to test whether predictions of theory are ultimately borne out in nature. |
Author | Richards, Emilie J. Servedio, Maria R. Martin, Christopher H. |
AuthorAffiliation | 1 Department of Biology, University of North Carolina at Chapel Hill, Chapel Hill NC 2 Integrative Biology and Museum of Vertebrate Zoology, University of California, Berkeley, CA |
AuthorAffiliation_xml | – name: 1 Department of Biology, University of North Carolina at Chapel Hill, Chapel Hill NC – name: 2 Integrative Biology and Museum of Vertebrate Zoology, University of California, Berkeley, CA |
Author_xml | – sequence: 1 givenname: Emilie J. surname: Richards fullname: Richards, Emilie J. organization: University of North Carolina at Chapel Hill – sequence: 2 givenname: Maria R. surname: Servedio fullname: Servedio, Maria R. organization: University of North Carolina at Chapel Hill – sequence: 3 givenname: Christopher H. orcidid: 0000-0001-7989-9124 surname: Martin fullname: Martin, Christopher H. email: chmartin@unc.edu organization: University of California |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/31245871$$D View this record in MEDLINE/PubMed |
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Keywords | gene flow cichlids genomics sympatric speciation selection introgression |
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Snippet | Sympatric speciation illustrates how natural and sexual selection may create new species in isolation without geographic barriers. However, recent genomic... |
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SubjectTerms | Animal behavior Animals Case studies cichlids Cichlids - genetics Empirical analysis Gene flow Gene Flow - genetics Genetic Speciation Genomic analysis genomics introgression New species Radiation Reproductive isolation selection Sexual selection Speciation Sympatric populations sympatric speciation Sympatry - genetics |
Title | Searching for Sympatric Speciation in the Genomic Era |
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