cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.17876/plate/dr.3/plates/203_30080
title: Digital object identifier (DOI) for the plate 30080 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30081
title: Digital object identifier (DOI) for the plate 30081 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30082
title: Digital object identifier (DOI) for the plate 30082 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30083
title: Digital object identifier (DOI) for the plate 30083 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30084
title: Digital object identifier (DOI) for the plate 30084 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30085
title: Digital object identifier (DOI) for the plate 30085 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30086
title: Digital object identifier (DOI) for the plate 30086 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30087
title: Digital object identifier (DOI) for the plate 30087 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30088
title: Digital object identifier (DOI) for the plate 30088 in archive 203 from the APPLAUSE DR3
DOI: 10.6084/m9.figshare.23977761
title: R code from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977761.v1
title: R code from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977764
title: cladogram from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977764.v1
title: cladogram from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.17876/plate/dr.3/plates/203_30089
title: Digital object identifier (DOI) for the plate 30089 in archive 203 from the APPLAUSE DR3
DOI: 10.6084/m9.figshare.23977767
title: nexus file from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977767.v1
title: nexus file from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977770
title: social_codings_pruned.csv from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.17876/plate/dr.3/plates/203_30090
title: Digital object identifier (DOI) for the plate 30090 in archive 203 from the APPLAUSE DR3
DOI: 10.6084/m9.figshare.23977770.v1
title: social_codings_pruned.csv from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.17876/plate/dr.3/plates/203_30091
title: Digital object identifier (DOI) for the plate 30091 in archive 203 from the APPLAUSE DR3
DOI: 10.6084/m9.figshare.23977776
title: social_codings_full.csv from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977776.v1
title: social_codings_full.csv from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.6084/m9.figshare.23977779.v1
title: Supplementary Tables from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.17876/plate/dr.3/plates/203_30092
title: Digital object identifier (DOI) for the plate 30092 in archive 203 from the APPLAUSE DR3
DOI: 10.6084/m9.figshare.23977779
title: Supplementary Tables from Phylogeny of the carpenter bees (Apidae: Xylocopinae) highlights repeated evolution of sociality

description: Many groups of animals have evolved social behaviours in different forms, from intimate familial associations to the complex eusocial colonies of some insects. The subfamily Xylocopinae, including carpenter bees and their relatives, is a diverse clade exhibiting a wide range of social behaviours, from solitary to obligate eusociality with distinct morphological castes, making them ideal focal taxa in studying the evolution of sociality. We used ultraconserved element data to generate a broadly sampled phylogeny of the Xylocopinae, including several newly sequenced species. We then conducted ancestral state reconstructions on the evolutionary history of sociality in this group under multiple coding models. Our results indicate solitary origins for the Xylocopinae with multiple transitions to sociality across the tree and subsequent reversals to solitary life, demonstrating the lability and dynamic nature of social evolution in carpenter bees. Ultimately, this work clarifies the evolutionary history of the Xylocopinae, and expands our understanding of independent origins and gains and losses of social complexity.
DOI: 10.17876/plate/dr.3/plates/203_30093
title: Digital object identifier (DOI) for the plate 30093 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30094
title: Digital object identifier (DOI) for the plate 30094 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30095
title: Digital object identifier (DOI) for the plate 30095 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30096
title: Digital object identifier (DOI) for the plate 30096 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30097
title: Digital object identifier (DOI) for the plate 30097 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30098
title: Digital object identifier (DOI) for the plate 30098 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30099
title: Digital object identifier (DOI) for the plate 30099 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30100
title: Digital object identifier (DOI) for the plate 30100 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30101
title: Digital object identifier (DOI) for the plate 30101 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30102
title: Digital object identifier (DOI) for the plate 30102 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30103
title: Digital object identifier (DOI) for the plate 30103 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30104
title: Digital object identifier (DOI) for the plate 30104 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30105
title: Digital object identifier (DOI) for the plate 30105 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30106
title: Digital object identifier (DOI) for the plate 30106 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30107
title: Digital object identifier (DOI) for the plate 30107 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30108
title: Digital object identifier (DOI) for the plate 30108 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30109
title: Digital object identifier (DOI) for the plate 30109 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30110
title: Digital object identifier (DOI) for the plate 30110 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30111
title: Digital object identifier (DOI) for the plate 30111 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30112
title: Digital object identifier (DOI) for the plate 30112 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30113
title: Digital object identifier (DOI) for the plate 30113 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30114
title: Digital object identifier (DOI) for the plate 30114 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30115
title: Digital object identifier (DOI) for the plate 30115 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30116
title: Digital object identifier (DOI) for the plate 30116 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30117
title: Digital object identifier (DOI) for the plate 30117 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30118
title: Digital object identifier (DOI) for the plate 30118 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30119
title: Digital object identifier (DOI) for the plate 30119 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30120
title: Digital object identifier (DOI) for the plate 30120 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30121
title: Digital object identifier (DOI) for the plate 30121 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30122
title: Digital object identifier (DOI) for the plate 30122 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30123
title: Digital object identifier (DOI) for the plate 30123 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30124
title: Digital object identifier (DOI) for the plate 30124 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30125
title: Digital object identifier (DOI) for the plate 30125 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30126
title: Digital object identifier (DOI) for the plate 30126 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30127
title: Digital object identifier (DOI) for the plate 30127 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30128
title: Digital object identifier (DOI) for the plate 30128 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30129
title: Digital object identifier (DOI) for the plate 30129 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30130
title: Digital object identifier (DOI) for the plate 30130 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30131
title: Digital object identifier (DOI) for the plate 30131 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30132
title: Digital object identifier (DOI) for the plate 30132 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30133
title: Digital object identifier (DOI) for the plate 30133 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30134
title: Digital object identifier (DOI) for the plate 30134 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30135
title: Digital object identifier (DOI) for the plate 30135 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30136
title: Digital object identifier (DOI) for the plate 30136 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30137
title: Digital object identifier (DOI) for the plate 30137 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30138
title: Digital object identifier (DOI) for the plate 30138 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30139
title: Digital object identifier (DOI) for the plate 30139 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30140
title: Digital object identifier (DOI) for the plate 30140 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30141
title: Digital object identifier (DOI) for the plate 30141 in archive 203 from the APPLAUSE DR3
DOI: 10.17876/plate/dr.3/plates/203_30142
title: Digital object identifier (DOI) for the plate 30142 in archive 203 from the APPLAUSE DR3