Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF

Australia harbours a rich and highly endemic orchid flora with over 90% of native species found nowhere else. However, little is known about the assembly and evolution of Australia’s orchid flora. Here, we used a phylogenomic approach to infer evolutionary relationships, divergence times and range e...

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Main Authors: Katharina Nargar, Kate O’Hara, Allison Mertin, Stephen J. Bent, Lars Nauheimer, Lalita Simpson, Heidi Zimmer, Brian P. J. Molloy, Mark A. Clements
Format: Dataset
Language:unknown
Published: 2022
Subjects:
Online Access:https://doi.org/10.3389/fpls.2022.912089.s004
https://figshare.com/articles/dataset/Data_Sheet_4_Evolutionary_Relationships_and_Range_Evolution_of_Greenhood_Orchids_Subtribe_Pterostylidinae_Insights_From_Plastid_Phylogenomics_PDF/20175056
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spelling ftfrontimediafig:oai:figshare.com:article/20175056 2023-05-15T13:45:38+02:00 Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF Katharina Nargar Kate O’Hara Allison Mertin Stephen J. Bent Lars Nauheimer Lalita Simpson Heidi Zimmer Brian P. J. Molloy Mark A. Clements 2022-06-29T04:58:41Z https://doi.org/10.3389/fpls.2022.912089.s004 https://figshare.com/articles/dataset/Data_Sheet_4_Evolutionary_Relationships_and_Range_Evolution_of_Greenhood_Orchids_Subtribe_Pterostylidinae_Insights_From_Plastid_Phylogenomics_PDF/20175056 unknown doi:10.3389/fpls.2022.912089.s004 https://figshare.com/articles/dataset/Data_Sheet_4_Evolutionary_Relationships_and_Range_Evolution_of_Greenhood_Orchids_Subtribe_Pterostylidinae_Insights_From_Plastid_Phylogenomics_PDF/20175056 CC BY 4.0 CC-BY Botany Plant Biology Plant Systematics and Taxonomy Plant Cell and Molecular Biology Plant Developmental and Reproductive Biology Plant Pathology Plant Physiology Plant Biology not elsewhere classified Australia climate change divergence-time estimation long-distance dispersal range evolution Orchidaceae phylogenetics Pterostylis Dataset 2022 ftfrontimediafig https://doi.org/10.3389/fpls.2022.912089.s004 2022-06-29T23:03:59Z Australia harbours a rich and highly endemic orchid flora with over 90% of native species found nowhere else. However, little is known about the assembly and evolution of Australia’s orchid flora. Here, we used a phylogenomic approach to infer evolutionary relationships, divergence times and range evolution in Pterostylidinae (Orchidoideae), the second largest subtribe in the Australian orchid flora, comprising the genera Pterostylis and Achlydosa. Phylogenetic analysis of 75 plastid genes provided well-resolved and supported phylogenies. Intrageneric relationships in Pterostylis were clarified and monophyly of eight of 10 sections supported. Achlydosa was found to not form part of Pterostylidinae and instead merits recognition at subtribal level, as Achlydosinae. Pterostylidinae were inferred to have originated in eastern Australia in the early Oligocene, coinciding with the complete separation of Australia from Antarctica and the onset of the Antarctic Circumpolar Current, which led to profound changes in the world’s climate. Divergence of all major lineages occurred during the Miocene, accompanied by increased aridification and seasonality of the Australian continent, resulting in strong vegetational changes from rainforest to more open sclerophyllous vegetation. The majority of extant species were inferred to have originated in the Quaternary, from the Pleistocene onwards. The rapid climatic oscillations during the Pleistocene may have acted as important driver of speciation in Pterostylidinae. The subtribe underwent lineage diversification mainly within its ancestral range, in eastern Australia. Long-distance dispersals to southwest Australia commenced from the late Miocene onwards, after the establishment of the Nullarbor Plain, which constitutes a strong edaphic barrier to mesic plants. Range expansions from the mesic into the arid zone of eastern Australia (Eremaean region) commenced from the early Pleistocene onwards. Extant distributions of Pterostylidinae in other Australasian regions, such as New ... Dataset Antarc* Antarctic Antarctica Frontiers: Figshare Antarctic The Antarctic
institution Open Polar
collection Frontiers: Figshare
op_collection_id ftfrontimediafig
language unknown
topic Botany
Plant Biology
Plant Systematics and Taxonomy
Plant Cell and Molecular Biology
Plant Developmental and Reproductive Biology
Plant Pathology
Plant Physiology
Plant Biology not elsewhere classified
Australia
climate change
divergence-time estimation
long-distance dispersal
range evolution
Orchidaceae
phylogenetics
Pterostylis
spellingShingle Botany
Plant Biology
Plant Systematics and Taxonomy
Plant Cell and Molecular Biology
Plant Developmental and Reproductive Biology
Plant Pathology
Plant Physiology
Plant Biology not elsewhere classified
Australia
climate change
divergence-time estimation
long-distance dispersal
range evolution
Orchidaceae
phylogenetics
Pterostylis
Katharina Nargar
Kate O’Hara
Allison Mertin
Stephen J. Bent
Lars Nauheimer
Lalita Simpson
Heidi Zimmer
Brian P. J. Molloy
Mark A. Clements
Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
topic_facet Botany
Plant Biology
Plant Systematics and Taxonomy
Plant Cell and Molecular Biology
Plant Developmental and Reproductive Biology
Plant Pathology
Plant Physiology
Plant Biology not elsewhere classified
Australia
climate change
divergence-time estimation
long-distance dispersal
range evolution
Orchidaceae
phylogenetics
Pterostylis
description Australia harbours a rich and highly endemic orchid flora with over 90% of native species found nowhere else. However, little is known about the assembly and evolution of Australia’s orchid flora. Here, we used a phylogenomic approach to infer evolutionary relationships, divergence times and range evolution in Pterostylidinae (Orchidoideae), the second largest subtribe in the Australian orchid flora, comprising the genera Pterostylis and Achlydosa. Phylogenetic analysis of 75 plastid genes provided well-resolved and supported phylogenies. Intrageneric relationships in Pterostylis were clarified and monophyly of eight of 10 sections supported. Achlydosa was found to not form part of Pterostylidinae and instead merits recognition at subtribal level, as Achlydosinae. Pterostylidinae were inferred to have originated in eastern Australia in the early Oligocene, coinciding with the complete separation of Australia from Antarctica and the onset of the Antarctic Circumpolar Current, which led to profound changes in the world’s climate. Divergence of all major lineages occurred during the Miocene, accompanied by increased aridification and seasonality of the Australian continent, resulting in strong vegetational changes from rainforest to more open sclerophyllous vegetation. The majority of extant species were inferred to have originated in the Quaternary, from the Pleistocene onwards. The rapid climatic oscillations during the Pleistocene may have acted as important driver of speciation in Pterostylidinae. The subtribe underwent lineage diversification mainly within its ancestral range, in eastern Australia. Long-distance dispersals to southwest Australia commenced from the late Miocene onwards, after the establishment of the Nullarbor Plain, which constitutes a strong edaphic barrier to mesic plants. Range expansions from the mesic into the arid zone of eastern Australia (Eremaean region) commenced from the early Pleistocene onwards. Extant distributions of Pterostylidinae in other Australasian regions, such as New ...
format Dataset
author Katharina Nargar
Kate O’Hara
Allison Mertin
Stephen J. Bent
Lars Nauheimer
Lalita Simpson
Heidi Zimmer
Brian P. J. Molloy
Mark A. Clements
author_facet Katharina Nargar
Kate O’Hara
Allison Mertin
Stephen J. Bent
Lars Nauheimer
Lalita Simpson
Heidi Zimmer
Brian P. J. Molloy
Mark A. Clements
author_sort Katharina Nargar
title Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
title_short Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
title_full Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
title_fullStr Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
title_full_unstemmed Data_Sheet_4_Evolutionary Relationships and Range Evolution of Greenhood Orchids (Subtribe Pterostylidinae): Insights From Plastid Phylogenomics.PDF
title_sort data_sheet_4_evolutionary relationships and range evolution of greenhood orchids (subtribe pterostylidinae): insights from plastid phylogenomics.pdf
publishDate 2022
url https://doi.org/10.3389/fpls.2022.912089.s004
https://figshare.com/articles/dataset/Data_Sheet_4_Evolutionary_Relationships_and_Range_Evolution_of_Greenhood_Orchids_Subtribe_Pterostylidinae_Insights_From_Plastid_Phylogenomics_PDF/20175056
geographic Antarctic
The Antarctic
geographic_facet Antarctic
The Antarctic
genre Antarc*
Antarctic
Antarctica
genre_facet Antarc*
Antarctic
Antarctica
op_relation doi:10.3389/fpls.2022.912089.s004
https://figshare.com/articles/dataset/Data_Sheet_4_Evolutionary_Relationships_and_Range_Evolution_of_Greenhood_Orchids_Subtribe_Pterostylidinae_Insights_From_Plastid_Phylogenomics_PDF/20175056
op_rights CC BY 4.0
op_rightsnorm CC-BY
op_doi https://doi.org/10.3389/fpls.2022.912089.s004
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