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877 results for “revised classification”
FIGURES 2–7 in A revised phylogenetic classification of the ant subfamily Formicinae (Hymenoptera: Formicidae), with resurrection of the genera Colobopsis and Dinomyrmex
FIGURES 2–7. Selected species of Colobopsis, full-face view of head of minor worker (Figs. 2–5) and lateral view of soldier (Figs. 6–7). 2, Colobopsis etiolata, Texas, USA (CASENT0104949); 3, C. truncata, Bulgaria (CASENT0179881); 4. C. cylindrica group, Brunei (CASENT0280269); 5, C. quadriceps, Papua New Guinea (CASENT0280264); 6, C. truncata, Italy (CASENT0249998); 7, C. quadriceps, Papua New Guinea (CASENT0280263). Images from AntWeb (www.antweb.org); photographers Aprile Nobile (2), Erin Prado (3), Estella Ortega (4, 5, 7) and Ryan Perry (6).
FIGURE 1 in A revised phylogenetic classification of the ant subfamily Formicinae (Hymenoptera: Formicidae), with resurrection of the genera Colobopsis and Dinomyrmex
FIGURE 1. Phylogeny of the ant subfamily Formicinae based on 959 UCE (ultraconserved element) loci (Blaimer et al. 2015). Support values are maximum likelihood bootstrap percentages. The tree depicts six major clades, here treated as tribes, and five isolated genera subtended by long branches (Gesomyrmex, Gigantiops, Myrmoteras, Oecophylla, and Santschiella, in bold font). Note that species assigned to Camponotus occur as three separate lineages within the tribe Camponotini, and that Phasmomyrmex and Forelophilus are embedded within Camponotus (sensu stricto).
FIGURE 1 in A revised classification of the Icteridae (Aves) based on DNA sequence data
FIGURE 1. Phylogeny of the New World blackbirds (Icteridae) inferred from mitochondrial and nuclear DNA sequences of 118 taxa (outgroups not shown)—topology taken from the best tree found under maximum likelihood by Powell et al. (2014; fig. 4); branch lengths estimated in BEAST 1.7.4 (lognormal uncorrelated relaxed clock model for mtDNA, strict clock for nDNA; Drummond et al. 2012) using the same data and mitochondrial partitioning as Powell et al. (2014), but nuclear sequences partitioned by locus. Dashed line marks the threshold used to assign subfamily ranks. Species are listed in the order given by this tree topology and (starting from the deepest node) following the conventions of listing the taxon in the leastdiverse clade first, or for equally diverse clades, the northwestern-most lineage first. However, the ordering of Cacicus haemorrhous, C. oseryi, and C. latirostris was altered to list the two oropendola-like caciques together and last among Cacicus, a sequence that is consistent with the better-supported resolution of relationships among these three taxa inferred from a larger mitochondrial dataset (unpublished).
Figure 9 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 9. Venation at hind wing base: A, M. basilaris male (China, Guangdong, Luofushan); B, M. nigripectus male (Thailand, Chiang Mai, Doi Inthanon).
Figure 7 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 7. Male of Matrona mazu sp. nov.; photo taken by Graham T. Reels in Wuzhishan, Hainan, 16 April 2008.
Figure 6 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 6. Right wings of males of Matrona species: A, M. basilaris (Qingliangfeng, Zhejiang); B, M. mazu sp. nov. (Baisha, Hainan; paratype, HaNBS02); C, M. oreades (Emeishan, Sichuan); D, M. taoi (Xuan Son, Vietnam; paratype).
Figure 4. Phylogenetic reconstruction for 92 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 4. Phylogenetic reconstruction for 92 specimens from COI. Posterior probabilities (above) and bootstrap values (below) are shown. A, all the groups excluding basilaris; B, basilaris.
Figure 5 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 5. The first two relative warps (RW) computed from the landmark data set. RW 1 (x-axis) accounts for 39.11% of the variations, and RW 2 (y-axis) for 19.02%. Splines indicate deformation of the landmarks in comparison with the reference configuration. Numbers in parentheses show how many samples were used in each group.
Figure 3. Phylogenetic reconstruction for 147 in A revised classification of the genus Matrona Selys, 1853 using molecular and morphological methods (Odonata: Calopterygidae)
Figure 3. Phylogenetic reconstruction for 147 specimens from ITS. Posterior probabilities (above) and bootstrap values (below) are shown.
Fig. 1. Bayesian 50 in A molecular phylogeny of Boronia (Rutaceae): placement of enigmatic taxa and a revised infrageneric classification
Fig. 1. Bayesian 50% majority-rule consensus tree from the combined analysis of two nuclear (ITS, ETS) and three plastid markers (psbA–trnH, trnL–trnF and rbcL), with thick lines showing supported clades (≥0.95 PP). Jackknife percentages from MP analysis are indicated with symbols above branches: 100% JK (closed triangle); 90–99% JK (closed circle); 75–89% JK (open triangle); 50–74% JK (open circle). New or revised sectional assignments are indicated in bold. Section Boronia clade has been collapsed and is shown in detail in Fig. 2.
FIGURE. 1 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 1. Cilia at the leaf margin. a) B. dubia, MPU, 017875, (type specimen). b) B. dubia, MA, 01-00021987. c) B. macrobotrys, TARI, 62698. d) B. glauca, TARI, 19421. e) B. longistyla, IAUM, 51. f) B. saviczii, IAUM, 33. g) B. speciosa, TARI, 11924. h) B. heweri, IAUM, 123. × 400.
FIGURE. 2 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 2. Phylogenetic tree of matK region resulting from the Bayesian inference of four sections of Bellevalia. The sections are based on the Feinbrun's (1940) classification. Numbers at nodes represent posterior probability values.
FIGURE. 5 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 5. Phylogenetic tree of trnL-F spacer chloroplastic region resulting from the Bayesian inference of four sections of Bellevalia. The sections are based on the Feinbrun's (1940) classification. Numbers at nodes represent posterior probability values.
FIGURE. 6 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 6. Phylogenetic tree of four chloroplastic regions resulting from the Bayesian inference of four sections of Bellevalia. The sections are based on the Feinbrun's (1940) classification. Numbers at nodes represent posterior prob.
FIGURE. 4 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 4. Phylogenetic tree of trnL intron chloroplastic region resulting from the Bayesian inference of four sections of Bellevalia. The sections are based on the Feinbrun's (1940) classification. Numbers at nodes represent posterior probability values.
FIGURE. 3 in A revised infrageneric classification of Bellevalia Lapeyr. (Asparagaceae: Scilloideae) based on molecular analysis
FIGURE. 3. Phylogenetic tree of rbcL chloroplastic region resulting from the Bayesian inference of four sections of Bellevalia. The sections are based on the Feinbrun's (1940) classification. Numbers at nodes represent posterior probability values.
FIGURE 21. Female genitalia, ovipositor. a–i in Revised classification of the New World Cylapini (Heteroptera: Miridae: Cylapinae): taxonomic review of the genera Cylapinus, Cylapoides and Peltidocylapus and a morphology-based phylogenetic analysis of tribe Cylapini
FIGURE 21. Female genitalia, ovipositor. a–i. Apex of first gonapophysis; j–q. Apex of second gonapophysis. a, j. Amapacylapus amapariensis; b. Cylapinus minusculus; c, k. Cylapoides unicolor; d, l. Cylapomorpha sp.; e, m. Cylapus amazonicus; f, n. Cylapus citus; g, o. Cylapus ruficeps; h, p. Peltidocylapus ecuadorensis; i, q. Peltidocylapus parallelus.
FIGURE 20. Female genitalia. Vestibular area. a in Revised classification of the New World Cylapini (Heteroptera: Miridae: Cylapinae): taxonomic review of the genera Cylapinus, Cylapoides and Peltidocylapus and a morphology-based phylogenetic analysis of tribe Cylapini
FIGURE 20. Female genitalia. Vestibular area. a. Amapacylapus amapariensis; b. Cylapinus minusculus; c. Cylapoides unicolor; d. Cylapus antennatus; e. Cylapus citus; f. Cylapus tenuicornis; g. Peltidocylapus parallelus; h. Valdasus flavinotum.
FIGURE 22. Female genitalia. a, b, d–f in Revised classification of the New World Cylapini (Heteroptera: Miridae: Cylapinae): taxonomic review of the genera Cylapinus, Cylapoides and Peltidocylapus and a morphology-based phylogenetic analysis of tribe Cylapini
FIGURE 22. Female genitalia. a, b, d–f. Bursa copulatrix (dorsal view); c. Bursa copulatrix (lateral view); g, h. Base of first gonapophyses; i–l. Apex of second gonapophysis. a. Psallops sp.; b, c, g, j. Afrovannius schmitzi; d. Vannius sp.; e, k. Cylapocoris sp.; f, h, l. Fulvius pallens; i. Leprocapsus scutellaris.
FIGURE 16. Female genitalia. a, d, g in Revised classification of the New World Cylapini (Heteroptera: Miridae: Cylapinae): taxonomic review of the genera Cylapinus, Cylapoides and Peltidocylapus and a morphology-based phylogenetic analysis of tribe Cylapini
FIGURE 16. Female genitalia. a, d, g. Bursa copulatrix (dorsal view); b, e, h. Bursa copulatrix (dorsal view, ventral labiate plate dissected). c, f, i. Ventral labiate plate and seminal depository (ventral view, with remainder of bursa copulatrix dissected). j. First gonapophyses and bursa copulatrix (ventral view); k. Bursa copulatrix (left lateral view). a–c. Cylapus amazonicus; d–f. Cylapus antennatus; g–k. Cylapus citus. dlp = dorsal labiate plate; odl = lateral oviduct; sd = seminal depository; sg = spermathecal gland; sr = sclerotized ring; vlp = ventral labiate plate; vstb = vestibulum.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
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.