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Fig. 6 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 6. Female Euwallacea kuroshio sp. nov. holotype, from top to bottom and left to right: lateral view, dorsal view, posterior oblique view of declivity, frontal view. Bar corresponds to 1.0 mm.
Fig. 4 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 4. Nonmetric multidimensional scaling plot of morphological distances of the eight morphological characters studied with ellipses showing one standard deviation around the centroid of each clade.Clade is indicated by shape: KSHB (square), PSHB (black circle),TSHBa (white circle),TSHBb (triangle). Stress = 0.138.
Fig. 5 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 5. Classification tree from the CART analysis built on 60 individuals representing the four clades within the E. fornicatus complex. Relevant characters for the node splits are shown. Classification rates are expressed as the number of correct classifications divided by the number of observations (individual beetles) in the node for the individuals used to train the CART model.
Fig. 2 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 2. ML phylogeny reconstruction of all measured individuals based on COI sequence. Red circles show bootstrap support over 70%.
Fig. 3 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 3. Boxplots showing morphological characters variation among clades of Euwallacea fornicatus in the eight morphological characters that showed statistically significant correlation with at least one phylogenetic clade. Different letter above bars correspond to significant differences between clades (P-value <0.05) inTukey HSD (for ANOVA) and Dunn's test (for Kruskal–Wallis) comparisons.
Fig. 1 in Species Delineation Within the Euwallacea fornicatus (Coleoptera: Curculionidae) Complex Revealed by Morphometric and Phylogenetic Analyses
Fig. 1. Pink lines show relevant morphological characters in the Euwallacea fornicatus species complex: pronotum length (PL), pronotum width (PW), elytra length (EL), elytra width (EW), posterocoxal process length (PC), protibial socketed denticles (PD).
FIGURE 1. Rubus fairholmianus Gardner. A in Taxonomic delineation of two closely allied Rubus L. (Rosaceae) species with notes on the typification of the name R. fairholmianus
FIGURE 1. Rubus fairholmianus Gardner. A. Habitat; B. Inflorescence (showing abaxial surface of leaves); C. Flower; D. Fruit; E. Stem (showing glaucous); F. Prickle; G. Adaxial surface of stipule; H & I. Sepals (showing adaxial and abaxial surface respectively); J. Petal; K. Adaxial surface of bract; L. Stamens; M. Carpels; N. Drupelets. (Photos: Bhavadas N and Saleesh J Menachery).
FIGURE 3. Rubus micropetalus Gardner. A in Taxonomic delineation of two closely allied Rubus L. (Rosaceae) species with notes on the typification of the name R. fairholmianus
FIGURE 3. Rubus micropetalus Gardner. A. Habitat; B. Inflorescence; C. Abaxial surface of leaves; D. Flower; E. Fruits; F & G. Stipules (showing adaxial and abaxial surface); H & I. Sepals (showing adaxial and abaxial surface); J. Petal; K & L. Bracts (showing adaxial and abaxial surface); M. Drupelet. (Photos: Bhavadas N).
FIGURE 4 in Taxonomic delineation of two closely allied Rubus L. (Rosaceae) species with notes on the typification of the name R. fairholmianus
FIGURE 4. (A–C): Rubus fairholmianus Gardner. A. Surface ornamentation, B. Dorsal side of seed, C. Raphe region. (D–F): Scanning electron micrographs of seed coat of Rubus micropetalus Gardner. D. Surface ornamentation, E. Dorsal side of seed, F. Raphe region.
Figure 4 in Cytochrome c oxidase subunit I barcode species delineation methods imply critically underestimated diversity in 'common' Hermeuptychia butterflies (Lepidoptera: Nymphalidae: Satyrinae)
Figure 4. Percentage of pairwise comparisons within each class of genetic distances (p-distance) for Hermeuptychia sequences calculated between (black bars) and within (grey bars) species. Species delimitation was based on the recursive partitioning ABGD analysis.
Figure 3. A in Cytochrome c oxidase subunit I barcode species delineation methods imply critically underestimated diversity in 'common' Hermeuptychia butterflies (Lepidoptera: Nymphalidae: Satyrinae)
Figure 3. A, relationships from our phylogenetic analyses based on Bayesian inference. Support values> 50 are indicated with posterior probability values indicated above the branch and bootstrap values indicated below the branch. Names and morphology group symbols are as presented in Seraphim et al. (2014), 'ns' indicates new sequences, and numbers in parentheses indicate the number of species within clades as indicated by the ABGD (recursive partitioning) approach. B, relationships among Hermeuptychia species redrawn from the phylogeny presented in Seraphim et al. (2014), for comparison.
Figure 2 in Cytochrome c oxidase subunit I barcode species delineation methods imply critically underestimated diversity in 'common' Hermeuptychia butterflies (Lepidoptera: Nymphalidae: Satyrinae)
Figure 2. Bayesian inference (BEAST2) tree for Hermeuptychia COI barcode sequences with posterior probabilities (top)> 0.5 and bootstrap values (bottom)> 50 indicated. Sequences generated in this study have voucher numbers beginning 'LEP' or 'IN' and are highlighted in blue. Species boundaries as indicated by the three most plausible implementations of each approach, bPTP (ML) (black), ABGD (recursive partitioning) (green) and GMYC (multiple thresholds) (grey), are illustrated as coloured bars on the side. * indicates groups that were recovered as one putative species but appear separated owing to the underlying phylogeny. Red vertical bars denote putative species that do not include an previously published sequences. Horizontal coloured bars and symbols beside sample voucher names denote morphology groupings identified in Seraphim et al. (2014).
Figure 9 in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 9. Gorgocephalus kyphosi and Gorgocephalus yaaji, ex Kyphosus vaigiensis, Lizard Island, Queensland, Australia, scanning electron micrographs. A, B, oral suckers of adult Gorgocephalus kyphosi. C, tegument of adult Gorgocephalus kyphosi. D, E, oral suckers of adult Gorgocephalus yaaji. F, tegument of adult Gorgocephalus yaaji. Scale bars: A, B, D, E, 50 µm; C, F, 20 µm.
Figure 8. Gorgocephalus kyphosi, scanning electron micrographs. A in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 8. Gorgocephalus kyphosi, scanning electron micrographs. A, whole adult worm ex Kyphosus sydneyanus, Point Riley, Yorke Peninsula, South Australia. B, D, E, ventral sucker, oral sucker and tegument of A, respectively. C, oral sucker of adult worm ex Kyphosus cinerascens, Moreton Bay, Queensland, Australia. F, oral sucker of adult worm ex Kyphosus cinerascens, Rangiroa, Tuamotu Islands, French Polynesia. Scale bars: A, 400 µm; B, 30 µm; C, D, 50 µm; E, 10 µm; F, 40 µm.
Figure 7. Gorgocephalus kyphosi. A in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 7. Gorgocephalus kyphosi. A, adult voucher ex Kyphosus sydneyanus, Point Riley, Yorke Peninsula, South Australia; lateral perspective. B, genital atrium, cirrus-sac and ovarian complex of A; lateral perspective. C, redia ex Echinolittorina vidua, Lizard Island, Queensland, Australia; ventral perspective. D, emerged cercaria ex Echinolittorina vidua, Lizard Island; ventral perspective. E, adult voucher ex Kyphosus sydneyanus, Point Riley; ventral perspective. Scale bars: A, E, 500 µm; B, C, D, 250 µm.
Figure 13. Gorgocephalus graboides A in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 13. Gorgocephalus graboides A, paratype ex Kyphosus cinerascens, Lizard Island, Queensland, Australia; lateral perspective. B, genital atrium, cirrus-sac and ovarian complex of paratype; lateral perspective. C, redia ex Echinolittorina vidua, Lizard Island; ventral perspective. D, emerged cercaria ex Echinolittorina vidua, Lizard Island; ventral perspective. E, holotype ex Kyphosus cinerascens, Lizard Island; ventral perspective. Scale bars: A, E, 500 µm; B, C, D, 250 µm.
Figure 6 in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 6. Bayesian majority-rule consensus tree of the concatenated COI + ITS2 + 28S alignment. Bayesian inference (BI) posterior probabilities and maximum likelihood (ML) bootstrap support shown at nodes. A '-' symbol indicates the node was not recovered in ML analysis. The scale-bar indicates the number of substitutions per site.
Figure 11. Gorgocephalus euryaleae. A in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 11. Gorgocephalus euryaleae. A, paratype ex Kyphosus gladius, Point Peron, Rockingham, Western Australia; lateral perspective. B, genital atrium, cirrus-sac and ovarian complex of separate paratype ex Kyphosus gladius, Point Peron; lateral perspective. C, holotype ex Kyphosus gladius, Point Peron; ventral perspective. Scale bars: A, C, 500 µm; B, 250 µm.
Figure 5 in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 5. Bayesian majority-rule consensus tree of the 28S rDNA single-gene alignment. Bayesian inference (BI) posterior probabilities and maximum likelihood (ML) bootstrap support shown at nodes. A '-' symbol indicates the node was not recovered in ML analysis. The scale-bar indicates the number of substitutions per site.
Figure 3 in Gorgocephalidae (Digenea: Lepocreadioidea) in the Indo-West Pacific: new species, life-cycle data and perspectives on species delineation over geographic range
Figure 3. Bayesian majority-rule consensus tree of the COI mtDNA single-gene alignment. Bayesian inference (BI) posterior probabilities and maximum likelihood (ML) bootstrap support shown at nodes. A '-' symbol indicates the node was not recovered in ML analysis. The scale-bar indicates the number of substitutions per site.
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.