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325 results for “molecular phylogenetic analysis”
Figure 2A from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 2A - Upper part of maximum likelihood phylogeny of ITS and RPB2 molecular data. Bootstrap support values ≥ 50% are shown above or below branches leading to clades. Thickened branches lead to clades receiving ≥ 70% bootstrap support. Boldface type labels represent specimens from the Greater Yellowstone Ecosystem (GYE). Boldface numbers refer to the taxa treated in the Key and Taxonomy sections.
Figure 7 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 7 - Lactarius salicis-reticulatae. Collection EB0057-14 under shrubby Salix sp., Beartooth Plateau, Wyoming, USA. Scale bar: 2 cm. Photo by E. Barge.
Figure 18 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 18 - Lactarius aff. tuomikoskii. Top and bottom collection EB0052-14 under Picea engelmannii, Silver Gate, Montana, USA. Scale bars: 2 cm. Photos by E. Barge.
Figure 2B from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 2B - Middle part of maximum likelihood phylogeny of ITS and RPB2 molecular data. Bootstrap support values ≥ 50% are shown above or below branches leading to clades. Thickened branches lead to clades receiving ≥ 70% bootstrap support. Boldface type labels represent specimens from the Greater Yellowstone Ecosystem (GYE). Boldface numbers refer to the taxa treated in the Key and Taxonomy sections.
Figure 6 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 6 - Lactarius repraesentaneus. Collection EB107-13 near krummholz Picea engelmannii and Salix glauca, Beartooth Plateau, Montana, USA. Scale bar: 2 cm. Photo by E. Barge.
Figure 25 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 25 - Lactarius luculentus v. laetus. Collection EB097-15 under Abies lasiocarpa and Picea engelmannii, Crazy Mountains, Montana, USA. Scale bar: 2 cm. Photo by E. Barge.
Figure 4 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 4 - Lactarius nanus. Collection EB106-13 near Salix arctica (pictured), Salix reticulata, and Salix planifolia, Beartooth Plateau, Montana, USA. Scale bar: 2 cm. Photo by E. Barge.
Figure 3 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 3 - Lactarius alpinus v. mitis. Top collection EB161-15 under Alnus incana and Populus trichocarpa, Red Lodge, Montana, USA. Bottom collection EB516-15 under Alnus rubra, western Oregon, USA. Scale bars: 2 cm. Photos by E. Barge.
Figure 8 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 8 - Lactarius pallidomarginatus. Collection EB0041 under Salix planifolia, San Juan Mountains, Colorado, USA. Scale bar: 2 cm. Photo by E. Barge.
Figure 2C from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 2C - Lower part of maximum likelihood phylogeny of ITS and RPB2 molecular data. Bootstrap support values ≥ 50% are shown above or below branches leading to clades. Thickened branches lead to clades receiving ≥ 70% bootstrap support. Boldface type labels represent specimens from the Greater Yellowstone Ecosystem (GYE). Boldface numbers refer to the taxa treated in the Key and Taxonomy sections.
Figure 9 from: Barge EG, Cripps CL (2016) New reports, phylogenetic analysis, and a key to Lactarius Pers. in the Greater Yellowstone Ecosystem informed by molecular data. MycoKeys 15: 1-58. https://doi.org/10.3897/mycokeys.15.9587
Figure 9 - Lactarius montanus. Top collection EB0072-14 and bottom collection EB0073-14 under Picea engelmannii, Tobacco Root Mountains, Montana, USA. Scale bars: 2 cm. Photos by E. Barge.
FIGURE 17 in Molecular phylogenetics facilitates the first historical biogeographic analysis of the hammerhead worms (Platyhelminthes: Tricladida: Bipaliinae), with the description of twelve new species and two new genera
FIGURE 17. Novibipalium rhynchophorum. Dorsal (A) and ventral (B) views of live specimen.
FIGURE 13. Humbertium ithorense. RMNH.VER.20261.a in Molecular phylogenetics facilitates the first historical biogeographic analysis of the hammerhead worms (Platyhelminthes: Tricladida: Bipaliinae), with the description of twelve new species and two new genera
FIGURE 13. Humbertium ithorense. RMNH.VER.20261.a (field number RS83). Habitus of living specimen.
Data from: Combined molecular phylogenetic analysis of the Orthoptera (Arthropoda, Insecta) and implications for their higher systematics
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Data from: Molecular and morphological phylogenetic analysis of an insular radiation in Pacific black flies (Simulium)
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Data from: Evolution and Phylogeny of the Diptera: A Molecular Phylogenetic Analysis Using 28S rDNA Sequences
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Data from: On polyphyly of the former section Ochlopoa Asch. et Graebn. and hybridogenic section Acroleucae Tzvelev et Prob. (Poa L., Poaceae): insights from the molecular phylogenetic analysis
In this study, sequence data of the nuclear region ITS1-5.8S rDNA-ITS2 and the chloroplast region trnL-F as well as few morphological characters were examined trying to elucidate the relationships among known annual bluegrasses. It was shown that all taxa from the aggregate P. annua distinguished by lemma characters and growth form are identical according to ITS and trnL-trnF data wherein all ITS sequences of P. annua aggr. are the same as P. supina and all trnL-trnF sequences are homologous with those of P. infirma. Also we haven't found any differences between unusual samples of P. supina with short spinules on their panicle branches and typical plants according to the sequence data though Siberian samples have minor distinction in trnL-trnF region. Our analysis showed hybrid origin of Asian annual bluegrasses (see also Nosov et al. 2015, Soreng et al. 2017). Their maternal genome is close to the section Homalopoa, but their ITS sequences were different. ITS sequences of some annual Asian bluegrasses group with the section Stenopoa and for other species (close to previous from the morphological traits) they fall into clade with the section Malacanthae. The latter group is distant from the sect. Ochlopoa and is better to be treated as a separate section, Acroleucae. American annual bluegrasses are heterogeneous and also rather distant from the sect. Ochlopoa. P. chapmaniana, species with cleistogamic flowers, is nested with basal Subantarctic sections falling out of its previously described affinity group. It is closer to the sect. Ochlopoa than other annual American bluegrasses. Thus, studied annual species in fact belong to the four independent evolutionary lines (or six including genus Eremopoa and Turkish Poa jubata – Cabi et al. 2017) one of which, Acroleucae, also passed triple reticulation event. As in previous studies our analysis didn't support the generic status of sect. Ochlopoa.
Data from: On polyphyly of the former section Ochlopoa Asch. et Graebn. and hybridogenic section Acroleucae Tzvelev et Prob. (Poa L., Poaceae): insights from the molecular phylogenetic analysis
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FIGURE 8a–c in Coenura Bigot as a valid genus: A molecular and morphological phylogenetic analysis of Pelecorhynchus Macquart sensu lato (Diptera: Pelecorhynchidae)
FIGURE 8a–c. Antenna in lateral view. a. Coenura longicauda Bigot female. b. Pelecorhynchus personatus (Walker) female. c. "Pelecorhynchus" fulvus Ricardo female © Cornell University Insect Collection, Ithaca (USA) (scale bar = 1.0 mm). Abbreviations. fflg = first flagellomere, flag = flagellomere, pe = pedicele, sp = scape.
FIGURE 1 in Revision of Hygrochilus (Orchidaceae: Epidendroideae: Aeridinae) and a molecular phylogenetic analysis
FIGURE 1. Flower and pollinium morphology of Hygrochilus and Sedirea. A. Flower of Hygrochilus parishii. B. Flower of Sedirea japonica. C. Flower of Hygrochilus subparishii. D. Flower of Hygrochilus tsii. E. Pollinarium of Hygrochilus parishii. F. Pollinarium of Sedirea japonica. G. Pollinarium of Hygrochilus subparishii. H. Pollinarium of Hygrochilus tsii. Photographs by Li-Jun Chen and Wen-Hui Rao.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.