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doi: 10.5061/dryad.4tn05
Premise of the study: Several studies have incorporated molecular and morphological data to study the phylogeny of the palms (Arecaceae), but some relationships within the family remain ambiguous—particularly those within Arecoideae, the most diverse subfamily including coconut and oil palm. Here, two next-generation, targeted plastid-enrichment methods were compared and used to elucidate Arecoideae phylogeny. Methods: Next-generation sequencing techniques were used to generate a plastid genome data set. Long range PCR and hybrid gene capture were used to enrich for chloroplast targets. Ten taxa were enriched using both methods for comparison. Chloroplast sequence data were generated for 31 representatives of the 14 Arecoideae tribes and five outgroup taxa. The phylogeny was reconstructed using maximum likelihood, maximum parsimony, and Bayesian analyses. Key results: Long range PCR and hybrid gene capture both enriched the plastid genome and provided similar sequencing coverage. Subfamily Arecoideae was resolved as monophyletic with tribe Chamaedoreeae as the earliest-diverging lineage, implying that the development of flowers in triads defines a synapomorphy for the Arecoideae clade excluding Chamaedoreeae. Three major clades within this group were recovered: Roystoneeae/Reinhardtieae/Cocoseae (RRC), Areceae/Euterpeae/Geonomateae/Leopoldinieae/Manicarieae/Pelagodoxeae (core arecoids), and Podococceae/Oranieae/Sclerospermeae (POS). An Areceae + Euterpeae clade was resolved within the core arecoids. The POS clade was sister to a RRC + core arecoids clade, implying a shared ancestral area in South America for these three clades. Conclusions: The plastome phylogeny recovered here provides robust resolution of previously ambiguous studies and new insights into palm evolution.
Nexus file of 114 chloroplast genes and gene positionsNexus file containing the 114 genes data set followed by the position of each gene with the matrix.NEXUS file of 114 chloroplast genes and gene postion.txtM1 Langrange combined input and outputCombined Lagrange M1 model input python script followed by the results output. This includes the dispersal constraints, geographic coding for taxa, concatenated 85 genes ML tree, and inferred ancestral areas within two log-likelihoods of the most likely area with relative probabilities.
Oranieae, Manicarieae, Cocoseae, Dypsis decaryi, Ceroxyleae, Leopoldinia pulchra, Ravenea hildebrandtii, Cyclospatheae, Arecaceae, Hydriastele microspadix, Heterospathe cagayanensis, oil palm, Attalea speciosa, Calamoideae, Dictyosperma album, Reinhardtieae, Ceroxyloideae, present day, Iriartea deltoidea, Oenocarpus bataua, Chamaedoreeae, Geonomateae, Areceae, Roystoneeae, Reinhardtia latisecta, Kentiopsis piersoniorum, Leopoldinieae, Phoeniceae, Iriarteeae, Veitchia spiralis, Bismarckia nobilis, Drymophloeus litigiosus, Arecoideae, Reinhardtia paiewonskiana, Pseudophoenix vinifera, Burretiokentia grandiflora, Areca vestiaria, Oil palm, Euterpeae, Satakentia liukiuensis, Elaeis oleifera, Calameae, Podococcus barteri, Podococceae, Sclerospermeae, Reinhardtia gracilis, Sclerosperma profizianum, Pelagodoxa henryana, mid-Eocene, Orania palindan, Roystonea regia, Calamus caryotoides, Manicaria saccifera, Geonoma undata subsp. dussiana, Coryphoideae, Reinhardtia simplex, Beccariophoenix madagascariensis, Bactris major, Oenocarpus minor, Chamaedorea seifrizii, Prestoea acuminata var. montana, gene capture, Borasseae, Pelagodoxeae, Next-generation sequencing
Oranieae, Manicarieae, Cocoseae, Dypsis decaryi, Ceroxyleae, Leopoldinia pulchra, Ravenea hildebrandtii, Cyclospatheae, Arecaceae, Hydriastele microspadix, Heterospathe cagayanensis, oil palm, Attalea speciosa, Calamoideae, Dictyosperma album, Reinhardtieae, Ceroxyloideae, present day, Iriartea deltoidea, Oenocarpus bataua, Chamaedoreeae, Geonomateae, Areceae, Roystoneeae, Reinhardtia latisecta, Kentiopsis piersoniorum, Leopoldinieae, Phoeniceae, Iriarteeae, Veitchia spiralis, Bismarckia nobilis, Drymophloeus litigiosus, Arecoideae, Reinhardtia paiewonskiana, Pseudophoenix vinifera, Burretiokentia grandiflora, Areca vestiaria, Oil palm, Euterpeae, Satakentia liukiuensis, Elaeis oleifera, Calameae, Podococcus barteri, Podococceae, Sclerospermeae, Reinhardtia gracilis, Sclerosperma profizianum, Pelagodoxa henryana, mid-Eocene, Orania palindan, Roystonea regia, Calamus caryotoides, Manicaria saccifera, Geonoma undata subsp. dussiana, Coryphoideae, Reinhardtia simplex, Beccariophoenix madagascariensis, Bactris major, Oenocarpus minor, Chamaedorea seifrizii, Prestoea acuminata var. montana, gene capture, Borasseae, Pelagodoxeae, Next-generation sequencing
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