Myrteae phylogeny, calibration, biogeography and diversification patterns: Increased understanding in the most species rich tribe of Myrtaceae

[Display omitted] •The present Myrteae phylogeny reports key differences among group relationships in comparison to previous published trees.•Future nomenclatural changes are necessary in at least eight genera that proved to be either poly or paraphyletic.•Three increases in diversification rates co...

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Published inMolecular phylogenetics and evolution Vol. 109; pp. 113 - 137
Main Authors Vasconcelos, Thais N.C., Proença, Carol E.B., Ahmad, Berhaman, Aguilar, Daniel S., Aguilar, Reinaldo, Amorim, Bruno S., Campbell, Keron, Costa, Itayguara R., De-Carvalho, Plauto S., Faria, Jair E.Q., Giaretta, Augusto, Kooij, Pepijn W., Lima, Duane F., Mazine, Fiorella F., Peguero, Brigido, Prenner, Gerhard, Santos, Matheus F., Soewarto, Julia, Wingler, Astrid, Lucas, Eve J.
Format Journal Article
LanguageEnglish
Published United States Elsevier Inc 01.04.2017
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Abstract [Display omitted] •The present Myrteae phylogeny reports key differences among group relationships in comparison to previous published trees.•Future nomenclatural changes are necessary in at least eight genera that proved to be either poly or paraphyletic.•Three increases in diversification rates contribute to the high diversity of Myrteae in the Neotropics.•Ancestral range estimation emphasizes the significance of higher latitude in the early diversification of the tribe.•Strong evidence for long distance dispersal event in Myrteae is found only in Rhodamnia and Eugenia group.•The only European Myrtaceae, Myrtus communis, is part of a mainly Neotropical clade. Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic relationships in Myrteae are complex, hindering conservation initiatives and jeopardizing evolutionary modelling. A well-supported and robust phylogenetic hypothesis was here targeted towards a comprehensive understanding of the relationships within the tribe. The resultant topology was used as a base for key evolutionary analyses such as age estimation, historical biogeography and diversification rate patterns. One nuclear (ITS) and seven chloroplast (psbA-trnH, matK, ndhF, trnl-trnF, trnQ-rps16, rpl16 and rpl32-trnL) DNA regions for 115 taxa representing 46 out of the 51 genera in the tribe were accessed and analysed using maximum likelihood and Bayesian inference tools for phylogenetic reconstruction. Dates of diversification events were estimated and contrasted using two distinct fossil sets (macro and pollen) in BEAST. The subsequent dated phylogenies were compared and analysed for biogeographical patterns using BioGeoBEARS and diversification rates using BAMM. Myrteae phylogeny presents strong statistical support for three major clades within the tribe: Australasian group, Myrtus group and Main Neotropical Lineage. Dating results from calibration using macrofossil are an average of 20 million years older and show an early Paleocene origin of Myrteae, against a mid-Eocene one from the pollen fossil calibration. Biogeographic analysis shows the origin of Myrteae in Zealandia in both calibration approaches, followed by a widespread distribution throughout the still-linked Gondwana continents and diversification of Neotropical endemic lineages by later vicariance. Best configuration shift indicates three points of acceleration in diversification rates, all of them occurring in the Main Neotropical Lineage. Based on the reconstructed topology, several new taxonomic placements were recovered, including: the relative position of Myrtus communis, the placement of the Blepharocalyx group, the absence of generic endemism in the Caribbean, and the paraphyletism of the former Pimenta group. Distinct calibration approaches affect biogeography interpretation, increasing the number of necessary long distance dispersal events in the topology with older nodes. It is hypothesised that biological intrinsic factors such as modifications of embryo type and polyploidy might have played a role in accelerating shifts of diversification rates in Neotropical lineages. Future perspectives include formal subtribal classification, standardization of fossil calibration approaches and better links between diversification shifts and trait evolution.
AbstractList Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic relationships in Myrteae are complex, hindering conservation initiatives and jeopardizing evolutionary modelling. A well-supported and robust phylogenetic hypothesis was here targeted towards a comprehensive understanding of the relationships within the tribe. The resultant topology was used as a base for key evolutionary analyses such as age estimation, historical biogeography and diversification rate patterns. One nuclear (ITS) and seven chloroplast (psbA-trnH, matK, ndhF, trnl-trnF, trnQ-rps16, rpl16 and rpl32-trnL) DNA regions for 115 taxa representing 46 out of the 51 genera in the tribe were accessed and analysed using maximum likelihood and Bayesian inference tools for phylogenetic reconstruction. Dates of diversification events were estimated and contrasted using two distinct fossil sets (macro and pollen) in BEAST. The subsequent dated phylogenies were compared and analysed for biogeographical patterns using BioGeoBEARS and diversification rates using BAMM. Myrteae phylogeny presents strong statistical support for three major clades within the tribe: Australasian group, Myrtus group and Main Neotropical Lineage. Dating results from calibration using macrofossil are an average of 20 million years older and show an early Paleocene origin of Myrteae, against a mid-Eocene one from the pollen fossil calibration. Biogeographic analysis shows the origin of Myrteae in Zealandia in both calibration approaches, followed by a widespread distribution throughout the still-linked Gondwana continents and diversification of Neotropical endemic lineages by later vicariance. Best configuration shift indicates three points of acceleration in diversification rates, all of them occurring in the Main Neotropical Lineage. Based on the reconstructed topology, several new taxonomic placements were recovered, including: the relative position of Myrtus communis, the placement of the Blepharocalyx group, the absence of generic endemism in the Caribbean, and the paraphyletism of the former Pimenta group. Distinct calibration approaches affect biogeography interpretation, increasing the number of necessary long distance dispersal events in the topology with older nodes. It is hypothesised that biological intrinsic factors such as modifications of embryo type and polyploidy might have played a role in accelerating shifts of diversification rates in Neotropical lineages. Future perspectives include formal subtribal classification, standardization of fossil calibration approaches and better links between diversification shifts and trait evolution.
[Display omitted] •The present Myrteae phylogeny reports key differences among group relationships in comparison to previous published trees.•Future nomenclatural changes are necessary in at least eight genera that proved to be either poly or paraphyletic.•Three increases in diversification rates contribute to the high diversity of Myrteae in the Neotropics.•Ancestral range estimation emphasizes the significance of higher latitude in the early diversification of the tribe.•Strong evidence for long distance dispersal event in Myrteae is found only in Rhodamnia and Eugenia group.•The only European Myrtaceae, Myrtus communis, is part of a mainly Neotropical clade. Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic relationships in Myrteae are complex, hindering conservation initiatives and jeopardizing evolutionary modelling. A well-supported and robust phylogenetic hypothesis was here targeted towards a comprehensive understanding of the relationships within the tribe. The resultant topology was used as a base for key evolutionary analyses such as age estimation, historical biogeography and diversification rate patterns. One nuclear (ITS) and seven chloroplast (psbA-trnH, matK, ndhF, trnl-trnF, trnQ-rps16, rpl16 and rpl32-trnL) DNA regions for 115 taxa representing 46 out of the 51 genera in the tribe were accessed and analysed using maximum likelihood and Bayesian inference tools for phylogenetic reconstruction. Dates of diversification events were estimated and contrasted using two distinct fossil sets (macro and pollen) in BEAST. The subsequent dated phylogenies were compared and analysed for biogeographical patterns using BioGeoBEARS and diversification rates using BAMM. Myrteae phylogeny presents strong statistical support for three major clades within the tribe: Australasian group, Myrtus group and Main Neotropical Lineage. Dating results from calibration using macrofossil are an average of 20 million years older and show an early Paleocene origin of Myrteae, against a mid-Eocene one from the pollen fossil calibration. Biogeographic analysis shows the origin of Myrteae in Zealandia in both calibration approaches, followed by a widespread distribution throughout the still-linked Gondwana continents and diversification of Neotropical endemic lineages by later vicariance. Best configuration shift indicates three points of acceleration in diversification rates, all of them occurring in the Main Neotropical Lineage. Based on the reconstructed topology, several new taxonomic placements were recovered, including: the relative position of Myrtus communis, the placement of the Blepharocalyx group, the absence of generic endemism in the Caribbean, and the paraphyletism of the former Pimenta group. Distinct calibration approaches affect biogeography interpretation, increasing the number of necessary long distance dispersal events in the topology with older nodes. It is hypothesised that biological intrinsic factors such as modifications of embryo type and polyploidy might have played a role in accelerating shifts of diversification rates in Neotropical lineages. Future perspectives include formal subtribal classification, standardization of fossil calibration approaches and better links between diversification shifts and trait evolution.
Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic relationships in Myrteae are complex, hindering conservation initiatives and jeopardizing evolutionary modelling. A well-supported and robust phylogenetic hypothesis was here targeted towards a comprehensive understanding of the relationships within the tribe. The resultant topology was used as a base for key evolutionary analyses such as age estimation, historical biogeography and diversification rate patterns. One nuclear (ITS) and seven chloroplast (psbA-trnH, matK, ndhF, trnl-trnF, trnQ-rps16, rpl16 and rpl32-trnL) DNA regions for 115 taxa representing 46 out of the 51 genera in the tribe were accessed and analysed using maximum likelihood and Bayesian inference tools for phylogenetic reconstruction. Dates of diversification events were estimated and contrasted using two distinct fossil sets (macro and pollen) in BEAST. The subsequent dated phylogenies were compared and analysed for biogeographical patterns using BioGeoBEARS and diversification rates using BAMM. Myrteae phylogeny presents strong statistical support for three major clades within the tribe: Australasian group, Myrtus group and Main Neotropical Lineage. Dating results from calibration using macrofossil are an average of 20 million years older and show an early Paleocene origin of Myrteae, against a mid-Eocene one from the pollen fossil calibration. Biogeographic analysis shows the origin of Myrteae in Zealandia in both calibration approaches, followed by a widespread distribution throughout the still-linked Gondwana continents and diversification of Neotropical endemic lineages by later vicariance. Best configuration shift indicates three points of acceleration in diversification rates, all of them occurring in the Main Neotropical Lineage. Based on the reconstructed topology, several new taxonomic placements were recovered, including: the relative position of Myrtus communis, the placement of the Blepharocalyx group, the absence of generic endemism in the Caribbean, and the paraphyletism of the former Pimenta group. Distinct calibration approaches affect biogeography interpretation, increasing the number of necessary long distance dispersal events in the topology with older nodes. It is hypothesised that biological intrinsic factors such as modifications of embryo type and polyploidy might have played a role in accelerating shifts of diversification rates in Neotropical lineages. Future perspectives include formal subtribal classification, standardization of fossil calibration approaches and better links between diversification shifts and trait evolution.Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic relationships in Myrteae are complex, hindering conservation initiatives and jeopardizing evolutionary modelling. A well-supported and robust phylogenetic hypothesis was here targeted towards a comprehensive understanding of the relationships within the tribe. The resultant topology was used as a base for key evolutionary analyses such as age estimation, historical biogeography and diversification rate patterns. One nuclear (ITS) and seven chloroplast (psbA-trnH, matK, ndhF, trnl-trnF, trnQ-rps16, rpl16 and rpl32-trnL) DNA regions for 115 taxa representing 46 out of the 51 genera in the tribe were accessed and analysed using maximum likelihood and Bayesian inference tools for phylogenetic reconstruction. Dates of diversification events were estimated and contrasted using two distinct fossil sets (macro and pollen) in BEAST. The subsequent dated phylogenies were compared and analysed for biogeographical patterns using BioGeoBEARS and diversification rates using BAMM. Myrteae phylogeny presents strong statistical support for three major clades within the tribe: Australasian group, Myrtus group and Main Neotropical Lineage. Dating results from calibration using macrofossil are an average of 20 million years older and show an early Paleocene origin of Myrteae, against a mid-Eocene one from the pollen fossil calibration. Biogeographic analysis shows the origin of Myrteae in Zealandia in both calibration approaches, followed by a widespread distribution throughout the still-linked Gondwana continents and diversification of Neotropical endemic lineages by later vicariance. Best configuration shift indicates three points of acceleration in diversification rates, all of them occurring in the Main Neotropical Lineage. Based on the reconstructed topology, several new taxonomic placements were recovered, including: the relative position of Myrtus communis, the placement of the Blepharocalyx group, the absence of generic endemism in the Caribbean, and the paraphyletism of the former Pimenta group. Distinct calibration approaches affect biogeography interpretation, increasing the number of necessary long distance dispersal events in the topology with older nodes. It is hypothesised that biological intrinsic factors such as modifications of embryo type and polyploidy might have played a role in accelerating shifts of diversification rates in Neotropical lineages. Future perspectives include formal subtribal classification, standardization of fossil calibration approaches and better links between diversification shifts and trait evolution.
Author Soewarto, Julia
De-Carvalho, Plauto S.
Amorim, Bruno S.
Wingler, Astrid
Faria, Jair E.Q.
Santos, Matheus F.
Campbell, Keron
Costa, Itayguara R.
Proença, Carol E.B.
Giaretta, Augusto
Aguilar, Reinaldo
Ahmad, Berhaman
Aguilar, Daniel S.
Lucas, Eve J.
Mazine, Fiorella F.
Vasconcelos, Thais N.C.
Prenner, Gerhard
Peguero, Brigido
Kooij, Pepijn W.
Lima, Duane F.
Author_xml – sequence: 1
  givenname: Thais N.C.
  surname: Vasconcelos
  fullname: Vasconcelos, Thais N.C.
  email: t.vasconcelos@kew.org
  organization: Comparative Plant and Fungal Biology, Jodrell Laboratory, Royal Botanic Gardens, Kew, TW9 3DS Richmond, Surrey, United Kingdom
– sequence: 2
  givenname: Carol E.B.
  surname: Proença
  fullname: Proença, Carol E.B.
  organization: Departamento de Botânica, Universidade de Brasília, 70919970 Brasília, DF, Brazil
– sequence: 3
  givenname: Berhaman
  surname: Ahmad
  fullname: Ahmad, Berhaman
  organization: Faculty of Science and Natural Resources, Universiti Malaysia Sabah, Jalan UMS, 88400 Kota Kinabalu, Sabah, Malaysia
– sequence: 4
  givenname: Daniel S.
  surname: Aguilar
  fullname: Aguilar, Daniel S.
  organization: Herbaria, Harvard University, 021382020 Cambridge, MA, United States
– sequence: 5
  givenname: Reinaldo
  surname: Aguilar
  fullname: Aguilar, Reinaldo
  organization: Centro de Diversidad de Plantas Regionales, Los Charcos de Osa, 768203, Península de Osa, Puntarenas, Costa Rica
– sequence: 6
  givenname: Bruno S.
  surname: Amorim
  fullname: Amorim, Bruno S.
  organization: Departamento de Botânica, Universidade Federal de Pernambuco, 50670901 Recife, PE, Brazil
– sequence: 7
  givenname: Keron
  surname: Campbell
  fullname: Campbell, Keron
  organization: Natural History Museum of Jamaica, Institute of Jamaica, 10-16 East Street, Kingston, Jamaica
– sequence: 8
  givenname: Itayguara R.
  surname: Costa
  fullname: Costa, Itayguara R.
  organization: Departamento de Biologia, Universidade Federal do Ceará, 60455760 Fortaleza, CE, Brazil
– sequence: 9
  givenname: Plauto S.
  surname: De-Carvalho
  fullname: De-Carvalho, Plauto S.
  organization: Universidade Estadual de Goiás, 76190000 Palmeiras de Goiás, GO, Brazil
– sequence: 10
  givenname: Jair E.Q.
  surname: Faria
  fullname: Faria, Jair E.Q.
  organization: Departamento de Engenharia Florestal, Universidade Federal dos Vales do Jequitinhonha e Mucuri, 39100000 Diamantina, MG, Brazil
– sequence: 11
  givenname: Augusto
  surname: Giaretta
  fullname: Giaretta, Augusto
  organization: Departamento de Botânica, Universidade de São Paulo, 05508900 São Paulo, SP, Brazil
– sequence: 12
  givenname: Pepijn W.
  surname: Kooij
  fullname: Kooij, Pepijn W.
  organization: Comparative Plant and Fungal Biology, Jodrell Laboratory, Royal Botanic Gardens, Kew, TW9 3DS Richmond, Surrey, United Kingdom
– sequence: 13
  givenname: Duane F.
  surname: Lima
  fullname: Lima, Duane F.
  organization: Departamento de Biologia Vegetal, Universidade Estadual de Campinas, 13083979 Campinas, SP, Brazil
– sequence: 14
  givenname: Fiorella F.
  surname: Mazine
  fullname: Mazine, Fiorella F.
  organization: Departamento de Ciências Ambientais, Universidade Federal de São Carlos, 18052780 Sorocaba, SP, Brazil
– sequence: 15
  givenname: Brigido
  surname: Peguero
  fullname: Peguero, Brigido
  organization: Departamento de Botánica, Jardín Botánico Nacional Dr. Rafael Ma. Moscoso, 10507 Santo Domingo, Dominican Republic
– sequence: 16
  givenname: Gerhard
  surname: Prenner
  fullname: Prenner, Gerhard
  organization: Comparative Plant and Fungal Biology, Jodrell Laboratory, Royal Botanic Gardens, Kew, TW9 3DS Richmond, Surrey, United Kingdom
– sequence: 17
  givenname: Matheus F.
  surname: Santos
  fullname: Santos, Matheus F.
  organization: Departamento de Biologia, Universidade Federal de São Carlos, 18052780 Sorocaba, SP, Brazil
– sequence: 18
  givenname: Julia
  surname: Soewarto
  fullname: Soewarto, Julia
  organization: Institut Agronomique néo-Calédonien, 98851 Nouméa, New Caledonia
– sequence: 19
  givenname: Astrid
  surname: Wingler
  fullname: Wingler, Astrid
  organization: School of Biological, Earth and Environmental Sciences, University College Cork, Distillery Fields, North Mall, T12 YN60 Cork, Ireland
– sequence: 20
  givenname: Eve J.
  surname: Lucas
  fullname: Lucas, Eve J.
  organization: Comparative Plant and Fungal Biology Department, Herbarium, Royal Botanic Gardens, Kew, TW9 3AB Richmond, Surrey, United Kingdom
BackLink https://www.ncbi.nlm.nih.gov/pubmed/28069533$$D View this record in MEDLINE/PubMed
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Snippet [Display omitted] •The present Myrteae phylogeny reports key differences among group relationships in comparison to previous published trees.•Future...
Myrteae (c. 2500 species; 51 genera) is the largest tribe of Myrtaceae and an ecologically important groups of angiosperms in the Neotropics. Systematic...
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SubjectTerms Bayes Theorem
Bayesian theory
biogeography
Blepharocalyx
Calibration
Caribbean
chloroplasts
Chloroplasts - genetics
DNA
Eugenia
Evolution
Evolution, Molecular
Fossils
Genes, Plant
Genetic Speciation
Genetic Variation
indigenous species
internal transcribed spacers
Multilocus Sequence Typing
Myrcia
Myrtaceae - classification
Myrtaceae - genetics
Myrtus
Myrtus communis
Neotropics
Phylogeny
Phylogeography
Pimenta
pollen
polyploidy
Psidium
Systematics
topology
Title Myrteae phylogeny, calibration, biogeography and diversification patterns: Increased understanding in the most species rich tribe of Myrtaceae
URI https://dx.doi.org/10.1016/j.ympev.2017.01.002
https://www.ncbi.nlm.nih.gov/pubmed/28069533
https://www.proquest.com/docview/1857371231
https://www.proquest.com/docview/2000437270
Volume 109
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