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1,968 results for “morphological taxonomy”
FIGURE 4 in Comparative morphology and taxonomy of the tiger moth genus Epanycles Butler (Lepidoptera, Erebidae, Arctiinae, Arctiini, Ctenuchina), with notes on related genera
FIGURE 4. Male genitalia of Eucereon obscurum. A) Male genitalia, dorsal view; B) Same, lateral view; C) Aedeagus. Scale bars: 1 mm.
Figure 3 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 3. In situ photographs of Apterodela spp. A) Apterodela ovipennis (Asia). B) Apterodela unipunctata (North America).
Figure 2 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 2. Representative dorsal habitus of Parvindela new genus. A) Parvindela debilis (type species. B) Parvindela terricola. C) Parvindela celeripes.
Figure 1 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 1. Maximum-likelihood phylogenetic hypothesis for North American lineages Ellipsoptera, Dromochorus, Brasiella, and Cylindera. Maximum-likelihood phylogeny inferred in IQ-TREE based on three mitochondrial fragments (16S, COX3 and CytB). Taxon naming follows previous naming conventions with different colors highlighting new generic groupings we propose. * denotes the C. lemniscata specimen from GenBank and † denotes the chimera specimen.
Figure 3 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 3. In situ photographs of Apterodela spp. A) Apterodela ovipennis (Asia). B) Apterodela unipunctata (North America).
Figure 2 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 2. Representative dorsal habitus of Parvindela new genus. A) Parvindela debilis (type species. B) Parvindela terricola. C) Parvindela celeripes.
Figure 1 in Unifying systematics and taxonomy: Nomenclatural changes to Nearctic tiger beetles (Coleoptera: Carabidae: Cicindelinae) based on phylogenetics, morphology and life history
Figure 1. Maximum-likelihood phylogenetic hypothesis for North American lineages Ellipsoptera, Dromochorus, Brasiella, and Cylindera. Maximum-likelihood phylogeny inferred in IQ-TREE based on three mitochondrial fragments (16S, COX3 and CytB). Taxon naming follows previous naming conventions with different colors highlighting new generic groupings we propose. * denotes the C. lemniscata specimen from GenBank and † denotes the chimera specimen.
FIGURE 4 in An integrative taxonomy of Vescelia pieli pieli species complex based on morphology, genes and songs from China (Orthoptera: Grylloidea: Phalangopsidae: Phaloriinae)
FIGURE 4. Male genetalia of Vescelia spp. A: V. pieli monotonia (from Wuyishan, Fujian); B: V. pieli pieli (from Changjian, Hainan); C: V. dulcis (from Wuzhishan, Hainan). 1: dorsal view; 2: ventral view.
FIGURE 1 in An integrative taxonomy of Vescelia pieli pieli species complex based on morphology, genes and songs from China (Orthoptera: Grylloidea: Phalangopsidae: Phaloriinae)
FIGURE 1. Phylogenetic reconstruction of Vescelia spp. from China based on COI gene. This tree was constructed with Maximum likelihood (ML) with GTR+G+I model and rooted by Neophaloria dianxiensis as the outgroups. Bootstrap values and posterior probabilities are indicated above each branch.
FIGURE 5 in An integrative taxonomy of Vescelia pieli pieli species complex based on morphology, genes and songs from China (Orthoptera: Grylloidea: Phalangopsidae: Phaloriinae)
FIGURE 5. Calling songs of Vescelia spp. A: V. pieli monotonia (from Wuyishan, Fujian); B: V. pieli pieli (from Changjian, Hainan); C: V. dulcis (from Wuzhishan, Hainan). scale bar=0.2s.
FIGURE 3 in An integrative taxonomy of Vescelia pieli pieli species complex based on morphology, genes and songs from China (Orthoptera: Grylloidea: Phalangopsidae: Phaloriinae)
FIGURE 3. Vescelia spp., live individuals and Holotype of V. pieli pieli. A: V. pieli monotonia (from Wuyishan, Fujian); B: V. pieli pieli (from Changjian, Hainan); C: V. dulcis (from Wuzhishan, Hainan); D: V. pieli pieli (Holotype).
Fig. 2 in Molecules and morphology suggest cryptic species diversity and an overall complex taxonomy of fish scale geckos, genus Geckolepis
Fig. 2 Left: Simplified ND4 tree of Geckolepis showing major clades and lineages referred to as OTUs as shown in Fig. 1 (relationships of G. polylepis are derived from analyses of the 12S gene sequences). Major diagnostic morphological differences of each (or combined) OTU are summarized at the right of each respective clade (considers only adult
Fig. 49-55 in An update on the phylogeny of Spintharinae with analysis based on morphological characters and taxonomy of Janula (Araneae, Theridiidae)
Fig. 49-55 Janula malachina (Simon, 1895) 49 Male palp, subapical. 50 Subapical, detail. Janula nebulosa (Simon, 1895) 51 Male palp, ventral. 52 Ventral, detail. 53 Prolateral view. 54 Prolateral, detail. 55 Epigynum, ventral view
Fig. 11-19 in An update on the phylogeny of Spintharinae with analysis based on morphological characters and taxonomy of Janula (Araneae, Theridiidae)
Fig. 11-19 Janula seguro sp. nov. 11 Male palp, ventral. 12 Male abdomen, dorsal. 13 Epigynum ventral. 14 Epigynum ventral. 15 Epigynum, dorsal cleared. Janula itaqui sp. nov. 16 Male palp, ventral. 17 Male body, dorsal. 18 Epigynum ventral. 19 Epigynum, dorsal cleared. Scale bars: figs. 11, 13, 15, 15, 16, 18, 19 = 0.1 mm; figs. 12, 17 = 0.25 mm
Fig. 3-10 in An update on the phylogeny of Spintharinae with analysis based on morphological characters and taxonomy of Janula (Araneae, Theridiidae)
Fig. 3-10 Janula pimenta sp. nov. 3 Male palp, ventral. 4 Male body, dorsal. 5 Epigynum ventral. 6 Epigynum, dorsal cleared. Janula manauara sp. nov. 7 Male palp, ventral. 8 Male abdomen, dorsal. 9 Epigynum ventral. 10 Epigynum, dorsal cleared. Scale bars: Figs. 3, 5, 6, 7, 9, 10 = 0.1 mm; Figs. 4, 8 = 0.25 mm
FIGURE 13 in A preliminary study of the morphological variation of rhizomes in Zingiber Mill. and its role in taxonomy
FIGURE 13. Clumping habit of representative Zingiber species. A. Z. purpureum Roscoe, showing that leafy shoots form a dense tuft and the leaf distiches of all the shoots are almost parallel to each other. Rhizomes of this species are densely branched, with short and thick rhizome units that are arranged in a vertical plane (see Fig. 10A). B. Z. montanum, showing that leafy shoots form dense tuft (inset), but can also appear as just with two to three leafy shoots. Leaf distiches are not parallel. Rhizomes of this species are densely branched, with short and thick rhizome units that are transverse to each other (see Fig. 12A). C. Z. striolatum, showing that leafy shoots form dense tuft and the leaf distiches are almost parallel to each other. Rhizome units of this species are moderately elongated, densely ramified and form a vertical plane (see Fig. 8B). D. Z. yunnanense, leafy shoots form large open colony, but young plant may also appear as a few leafy shoots (inset). Rhizome units of this species are long and plagiotropic and there are often only a few active buds aggregated at the apex (see Fig. 8C). E. Z. fallax, showing that leafy shoots may form a loose clump, but more often appear as nearly solitary with just one to two shoots (inset). Rhizomes units in this species are short or sometimes with moderately elongated pseudo-neck, and each rhizome unit has 1–3 active buds (see Fig. 6). Photos: B by Yi Hua Tong, others by Lin Bai.
FIGURE 12 in A preliminary study of the morphological variation of rhizomes in Zingiber Mill. and its role in taxonomy
FIGURE 12. Multi-planar rhizomes of Zingiber montanum (J.Koenig) Link ex A.Dietr. and Alpinia sp. A. Z. montanum (top view): Green bars on abscission scars of the rhizome units indicate the direction of leaf distichy of those units. These bars show that leaf distichy of a rhizome unit is perpendicular to its antecedent rhizome unit and its daughter rhizome units. Compare with Fig. 4E. Upper left inset: renewal buds (blue arrows) produced in lateral positions relative to the antecedent rhizome unit; lower left inset: prophyll (green arrow) of new bud located in abaxial position (this bud is at the apex of rhizome unit, i.e. the base of aerial stem); right inset: the scale (green arrow) on the third node of bud N and the bud from the second node (blue arrow) of the bud N are position at the lateral position of bud N. B. Alpinia sp, with an extravaginal young bud (top view, note that the first scale (a) is adaxial in relation to its associated scale (asl), while the second scale (b) has rotated about 45 degree, and the third scale onwards (c–f) are in lateral positions. Photos: Lin Bai.
FIGURE 10 in A preliminary study of the morphological variation of rhizomes in Zingiber Mill. and its role in taxonomy
FIGURE 10. Rhizome sections of representative species of Zingiber, showing internal colour variation. A. Z. purpureum Roscoe (bright yellow). B. Z. officinale Roscoe, a cultivar called "feng jiang (Ṃƃ)". Rhizomes are yellow or with different shades of purple. C. Z. ventricosum Bai et al. (cream). D. Z. viridescens Chen et al. (cream white when young, turning pale bluish to pale purple with age). E. Z. kerrii Craib (beige but pink at upper part of rhizome unit). F. Z. lingyunense D.Fang (varies from beige to peach coloured to purple to dark purple). Bar=1 cm for B–F. Photos: Lin Bai.
FIGURE 5. Zingiber leptorrhizum D.Fang, a in A preliminary study of the morphological variation of rhizomes in Zingiber Mill. and its role in taxonomy
FIGURE 5. Zingiber leptorrhizum D.Fang, a heteromodular species of Z. sect. Cryptanthium. A. A rhizome fragment showing three rhizome units with pseudo-neck of varying length. B–D. Rhizome fragments showing the sympodial growth (the apical meristem of each rhizome unit is determinate and its growth ceases with either an inflorescence or a vegetative shoot before the axillary buds mature). Scale bars=5 cm for A–D. Photos: Lin Bai.
FIGURE 1 in A preliminary study of the morphological variation of rhizomes in Zingiber Mill. and its role in taxonomy
FIGURE 1. Diagram showing the sympodial rhizomatous growth and rhizome of Zingiber. A. Isomodular growth seen in Z. sect. Dymczewiczia, based on Leong-Škorničková et al. (2015: Fig. 3), showing one sterile module (blue), two modules with apical inflorescences (yellow and pale brown), and an older rhizome unit where the aerial shoot has shed (dark brown on the right). B. Heteromodular growth seen in Z. sect. Zingiber, showing two solely vegetative modules (blue and pale brown) and one erect, solely flowering module (yellow). C. A rhizome with four mature rhizome units: two older ones (dark brown and pale brown) showing abscission scars (as), and two younger ones (yellow) showing base of the aerial shoots that possess transitional leaves (tl). Also shown are numerous buds (b) of different ages (more mature one in blue and younger ones in green). The nodes on rhizome units are identified by presence of scales (sl) or by scale scars (ss). Note: scales (sl) appear as two split lobes lateral to their subtending buds, as is often the case in reality. Drawn by Ding Han Cui.
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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.