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FIGURE 11 in Total-evidence Phylogeny of the New World Polistes Lepeletier, 1836, Paper Wasps (Vespidae, Polistinae, Polistini)
FIGURE 11. Mesosoma, dimensions of scutum and scutellum: A, Vespula squamosa (outgroup); B, Polistes apachus; C, Polistes fuscatus; D, Polistes versicolor; E, Polistes bicolor; and F, Polistes terresae.
FIGURE 5 in Total-evidence Phylogeny of the New World Polistes Lepeletier, 1836, Paper Wasps (Vespidae, Polistinae, Polistini)
FIGURE 5. Face in front view: A, clypeus wider than long, clypeal apex strongly bidentate, clypeus touching for an extension greater than width of antennal socket the eye in Vespula germanica (outgroup); B, clypeus as long as wide, clypeal apex rounded, clypeus touching for an extension equal to width of antennal socket the eye Polistes cavapytiformis; C, clypeus as long as wide, clypeal apex pointed, clypeus touching for an extension shorter than width of antennal socket the eye in Polistes carnifex; and D, clypeus longer than wide, clypeal apex pointed, clypeus narrowly separated by eye in Polistes thoracicus. For all bristles length very long (A), long (B), short, becoming long toward the apex (D).
FIGURE 4 in Total-evidence Phylogeny of the New World Polistes Lepeletier, 1836, Paper Wasps (Vespidae, Polistinae, Polistini)
FIGURE 4. Summary subgenera relationships for New World Polistes obtained in our analyses compared to previous studies.
FIGURE 3 in Total-evidence Phylogeny of the New World Polistes Lepeletier, 1836, Paper Wasps (Vespidae, Polistinae, Polistini)
FIGURE 3. Single most parsimonious tree obtained in the analysis of morphological, behavioral, and molecular data, with the dataset restricted to the 53 species of Polistes for which molecular data was available. Node numbers represent support values from symmetrical resampling, reported as absolute frequencies.
FIG. 14 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 14. An undescribed Early Jurassic batomorph skeleton from Holzmaden (SMNS 52666): A, general view of the specimen in dorsal view; white rectangle indicates region shown in B (scale bar = 10 cm); B, detail of cranio-vertebral articulation, showing the existence of an occipital hemicentrum and a short synarcual with four unreduced anterior vertebral centra. In all modern batoids, the occipital hemicentrum and the anteriormost centra within the synarcual are absent and the cranio-vertebral joint is formed entirely by fused dorsal and ventral arcualia of the vertebral column (synarcual cartilage). Thus, reduction or absence of the anterior spool in the first free centrum of squatiniforms is probably independent of the condition in batomorphs.
FIG. 10. ALMNH 2792-B in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 10. ALMNH 2792-B, three views of ceratohyal referred here to Cretasquatina americana. Anterior to right in A and C, to left in B. Again, note the extremely coarse texture of tesserae.
FIG. 7. ALMNH 2792-A in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 7. ALMNH 2792-A, almost complete left palatoquadrate, referred here to Cretasquatina americana: A, lateral view, anterior to left; B, mesial view, anterior to right; C, dorsal view, anterior to left; D, ventral view, anterior to left. Note extremely large cartilage tesserae (some with zigzag intertesseral contacts), especially in the center of the lateral surface of the palatoquadrate main bar in A.
FIG. 6. Squatina nebulosa, AMNH 258172 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 6. Squatina nebulosa, AMNH 258172. Views of the cranium and anterior part of vertebral column, imaged from tomographic scan by C. Crawford: A, ventral view of first six vertebral centra and associated basiventrals, anterior to top; B, anterior view of first vertebral element; C, dorsal view of A; D, posterior view of cranium; E, ventral view of cranium and vertebral centra (anterior to left); F, dorsal view of same. Upper scale bar for A–D; lower scale bar for E and F only.
FIG. 4. Cretasquatina americana. Holotype, ALMNH 2792-C in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 4. Cretasquatina americana. Holotype, ALMNH 2792-C, computerized tomography images of slices through first vertebra: A, horizontal section through middle of centrum just above median process; B, slightly higher horizontal section clipping anterior part of spinal canal; C, midsagittal section through vertebral centrum. Note the extremely large size of individual tesserae, especially rows of "voussoir" tesserae along margins between adjacent surfaces.
FIG. 9 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 9. Head skeleton of modern Squatina nebulosa, AMNH 258172 (juvenile female 405 mm TL), images from scanned specimen segmented by C. Crawford: A, cranium, jaws and ceratohyals in dorsal view, anterior to top; B, same in ventral view; C, same in lateral view, left side, anterior to left; D, left palatoquadrate in lateral view, anterior to left; E, same in mesial view, anterior to right; F, same in dorsal view, anterior to left; G, same in ventral view, anterior to left; H, left ceratohyal in lateral view; I, same in mesial view.
FIG. 2 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 2. Cretasquatina americana, gen. nov., sp. nov. Holotype, ALMNH 2792-C, six associated vertebrae forming the anterior vertebral complex: A, dorsal view; B, ventral view; C, anterior views of centra 1–6; D, posterior views of centra 1–6.
FIG. 13 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 13. Strict consensus of two equally parsimonious trees, inferred from PAUP*. Numbers at nodes are bootstrap support values. Cretasquatina is inferred to lie on the squatinid stem above Pseudorhina. Cretascyllium is resolved in this analysis as the closest extinct taxon to modern Squatina.
FIG. 5 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 5. AMNH FF 22425, Late Cretaceous, Ramanessin Brook, NJ; isolated first vertebra referred to Cretasquatina: A, anterior view; B, posterior view; C, dorsal view; D, ventral view. The centrum is visible posteriorly but does not emerge onto the anterior surface of the element. Large paired concavities of the cranial-vertebral articulation are present anteriorly. Note also the large size of cartilage tesserae covering surfaces of the arcualia and cotyli (compare with figs. 3, 4).
FIG. 1. Locality and stratigraphic information. A in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 1. Locality and stratigraphic information. A, location of Alabama within continental United States (no scale); B, location of Dallas County within Alabama (no scale); C, location (starred) of Harrell Station Paleontological Station (HSPS); D, general view of the HSPS site; E, Upper Cretaceous geologic section for western Alabama showing the approximate exposure level at HSPS (arrow).
FIG. 3. Cretasquatina americana. Holotype, ALMNH 2792-C in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 3. Cretasquatina americana. Holotype, ALMNH 2792-C, first vertebra: A, dorsal view; B, ventral view; C, anterior view; D, posterior view. Note large size of individual tesserae.
FIG. 8 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 8. Additional palatoquadrates referred here to Cretasquatina americana: A–C, ALMNH 1040-A, almost complete right palatoquadrate approximately 143 mm long. A, lateral view, anterior to right; B, mesial view, anterior to left; C, dorsal view, anterior to left; D, E, ALMNH 1040-B, anterior part of left palatoquadrate matching 1040-A in size and representing its antimere (the two were collected together).
FIG. 12 in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 12. Comparison of palatoquadrate proportions in four different squatinids, all in lateral view, anterior to left. See text for discussion. A, ALMNH 2792-A (see fig. 6), referred here to Cretasquatina americana; B, modern Squatina nebulosa, AMNH 258172 (see fig. 9); C, Pseudorhina acanthoderma (adapted after Vaz and Carvalho, 2013; fig.6); D, Cretascyllium cranei (adapted from a photograph of the holotype specimen, Booth Museum BNB 007329/007330, courtesy of C.J. Underwood).
FIG. 11. ALMNH 2792-D in A new genus of Late Cretaceous angel shark (Elasmobranchii; Squatinidae), with comments on squatinid phylogeny
FIG. 11. ALMNH 2792-D, fragment of braincase, possibly part of the postorbital process. Small white stars in B mark a series of voussoir tesserae lining the outer margin of a foramen.
Fig. 27 in Molecular phylogeny and classification of Lyropaeini (Coleoptera: Lycidae) with description of larvae and new species of Lyropaeus
Fig. 27. Ratio between width at humeri and width of pronotum at basal margin in selected species of Lyropaeus (s. str.) (black bars) and Lyropaeus (Lyroneces) (gray bars).
Figs. 39–50 in Molecular phylogeny and classification of Lyropaeini (Coleoptera: Lycidae) with description of larvae and new species of Lyropaeus
Figs. 39–50. Male genitalia of Lyropaeus (Lyroneces): 39, L. dominator Kleine; 40, L. humeralis Kleine; 41, L. monticola Kleine; 42, L. optabilis Kleine; 43, L. philippinensis Kleine; 44, L. ritsemae Gorham; 45, L. rubrostriatus Kleine; 46, L. waterhousei Gorham. Mouth parts of L. (Lyroneces) optabilis: 47, labium; 48, maxillary palpus; 49, mandible. Pronotum: 50, L. (Lyroneces) optabilis. Scale bars = 0.25 mm (Figs. 39–46, 47–49); scale bar = 0.5 mm (Fig. 50).
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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)
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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.