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1,790 results for “Reptile”
FIG. 3 in Amphibians and reptiles from the Neogene of Afghanistan
FIG. 3. — Testudines, Sherullah, late Miocene, Agrionemys sp.: A, pygal AFG 132, dorsal, ventral and right lateral views; B, pygal AFG 132 superposed on pygal of Agrionemys sp of Maragheh (Iran) in ventral view; C, AFG 135, neural 5, dorsal and ventral views; D, AFG 138 (9), left epiplastron, dorsal, ventral, medial and posterior views; E, AFG 138 (9), left epiplastron superposed on a drawing of an anterior lobe of Agrionemys horsfieldii from Khordkabul basin REP 57 (without scutes), dorsal view; F, AFG 130, left epiplastron, dorsal, ventral, medial (symphyseal) and left (external) views; G, AFG 136, right fragmentary xiphiplastron, ventral, dorsal and lateral views; H, Agrionemys horsfieldii, REP 57, half posterior lobe parts of specimens from Khordkabul basin (with scutes) with superposition of fragmentary xiphiplastral AFG 138 (11) and AFG 136, respectively ventral and dorsal view (not to scale); I, AFG 138 (11), right anal xiphiplastral extremity, ventral and dorsal views; J, AFG 131, fragmentary posterior peripheral, dorsal, ventral and distal views; K, AFG 134, fragmentary posterior peripheral, dorsal, ventral and distal view. Agrionemys sp., Maragheh (Iran), late Miocene, fragmentary shell: L, MNHN.F.MAR2424, pygal-suprapygal area, dorsal proximal and ventral views; M, MNHN.F.MAR2425, fragmentary right hypoplasron, oblique-posterior view on iguinal notch. Abbreviations: ab-fe, abdominofemoral sulcus; ing, inguinal scute; shx, hypoxiphiplastral suture. Scale bars: 20 mm.
FIG. 4 in Amphibians and reptiles from the Neogene of Afghanistan
FIG. 4. — Varanidae, Molayan, Varanus sp., trunk vertebra MOL 4126, photos: A anterior view; B, dorsal view; C, lateral view; D, ventral view. Right humerus fragment in dorsal and ventral view, respectively. Scale bar: 5 mm.
FIG. 2 in Amphibians and reptiles from the Neogene of Afghanistan
FIG. 2. — Anura. Sherullah, late Miocene, drawings, A-F: A, B,? Discoglossinae (? Alytidae); A, right humerus AFG 1650, ventral view; B, presacral vertebra AFG 1651, dorsal (B1) and ventral (B2) views; C-E, "Ranidae"; C, right humerus AFG 1653, ventral view; D, right ilium AFG 1655, lateral view; E, right coracoid AFG 1652, inner face. Hadji Rona, early Pliocene, F, Anura indet. sp. C, sacral vertebra AFG 1680, ventral view. Scale bars: 3 mm.
FIG. 5 in Amphibians and reptiles from the Neogene of Afghanistan
FIG. 5. — Varanidae, Molayan, late Miocene, Varanus sp., trunk vertebra MOL 4126, drawings: A, anterior view; B, dorsal view; C, lateral view; D, ventral view. Scale bar: 5 mm.
FIGURE 3. Currently available descriptions across different families. The 5 in Towards digital descriptions of all extant reptile species
FIGURE 3. Currently available descriptions across different families. The 5 number columns show the number of species in each family (species), the number of species with descriptions or without (desc, no desc), the percentage of species with descriptions (percent), and the number of species without (left). The left bar chart shows the percentage of species with/out descriptions (blue/yellow). The right bar chart shows the absolute number of species with/out descriptions (blue/orange). Note that Iguanidae contains all 8 families now considered Iguanidae (s.l.), e.g. Opluridae etc. The Lamprophiidae (s.l.) also contain Atractaspididae, Psammophiidae, and Pseudoxyrhophiidae. Gymnophthalmidae (s.l.) contain Alopoglossidae and Anguidae (s.l.) contain Diploglossidae.
FIGURE 2 in Towards digital descriptions of all extant reptile species
FIGURE 2. Number of species with descriptions and images in the Reptile Database (A) 4,206 species descriptions contain information about other species, so even though the latter species do not have a description, information about them may be derived from those species that do. (B) Coverage of species by descriptions and/or photos.
FIGURE 1 in Towards digital descriptions of all extant reptile species
FIGURE 1 Species descriptions in the Reptile Database over time and ranked by information content. (A) Timeline over which descriptions have been added to the Reptile Database. (B) Descriptions ranked by "size". Each species with a description is shown as a vertical bar, with the hight indicating its size in characters (i.e., "bytes" or letters without spaces, Y axis). The X axis shows the ranked series of species. One example is shown in the insert, namely the description of Lampropeltis alterna. This description has 623 characters and is on the shorter end of the spectrum. The tail end of this graph shows ~700 species in which the description only consists of a reference, e.g., "Description: McDowell 1979: 51" (here: for Candoia aspera Ģnther 1877), hence they are very short.
Linked collectors and determiners for: Realización de fichas de 12 especies de anfibios y 2 de reptiles.
Natural history specimen data linked to collectors and determiners held within, "Realización de fichas de 12 especies de anfibios y 2 de reptiles". Claims or attributions were made on Bionomia by volunteer Scribes, <a href="http://bionomia.net/dataset/45347233-6a4f-4843-b4f2-9573eef8dea0">https://bionomia.net/dataset/45347233-6a4f-4843-b4f2-9573eef8dea0</a> using specimen data from the dataset aggregated by the Global Biodiversity Information Facility, <a href="https://gbif.org/dataset/45347233-6a4f-4843-b4f2-9573eef8dea0">https://gbif.org/dataset/45347233-6a4f-4843-b4f2-9573eef8dea0</a>. Formatted as a Frictionless Data package.
Data and code for publication: Advancing Maternal Transfer of Organic Pollutants across Reptiles for Conservation and Risk Assessment Purposes
<p>Dataset and r code to prepare the dataset, in support of the publication:</p> <p>"Advancing maternal transfer of organic pollutants across reptiles for conservation and risk assessment purposes"</p> <p>Munoz, C.C., Charles, S., Vermeiren, P. (2024) Environmental Science and Technology, https://doi.org/10.1021/acs.est.4c04668</p> <p>contact email: munozc.cynthia@gmail.com</p>
Fig. 9. A in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 9. A plesiosauroid (Cryptoclididae? indet.) pectoral centrum, MZ VIII Vr-73 ("ZPAL V-KRZ/32"), from the Kimmeridgian of Krzyżanowice, in anterior (A1), posterior (A2), dorsal (A3), ventral (A4), left lateral (A5), and right lateral (A6) views.
Fig. 5 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 5. The thalassochelydian turtle Craspedochelys? sp., MZ VIII Vr-71, from the Kimmeridgian of Krzyżanowice, shell fragments. A. Middle part of a second, fourth, or sixth costal in external view. B. Proximal part of a third or fifth costal in external view. C, D. Parts of unidentified costals in external view. E. Parts of two unidentified costals retaining a sutural contact in external view. F. Proximal part of a second, fourth, or sixth costal in external (F1) and visceral (F2) views. G. Probable part of the plastron in external (G1–G2), visceral (G3–G4),?posterior (G5), and?lateral (G6) views. Note that the position of the element within the shell is uncertain, so precise orientation is not possible. G2, G3, G5, and G6 are 3D models based on surface scans in the orthographic view with the Radiance Scaling shader enabled to optimize the lighting and present the raised?lateral edge (asterisk). H. Part of a plastron of a large individual in external (H1) and visceral (H2) view and natural cross-section (H3). Note that the fragments likely belong to various individuals.
Fig. 2 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 2. The thalassochelydian turtle Craspedochelys? sp., MZ VIII Vr-71, from the Kimmeridgian of Krzyżanowice. Central part of the carapace (Fig. 6A: 1), in external (A1, A2) and visceral (A3, A4) views. A1, A3, photographs; A2, A4, explanatory drawings.
Fig. 1 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 1. Geographic distribution of Jurassic marine reptile fossil occurrences in Poland. See Table 1 for details. Silhouettes obtained from phylopic.org: Geosaurinae (Dmitry Bogdanov, CC BY 3.0), Ichthyosauria, Metriorhynchinae, and Teleosauroidea (Gareth Monger, CC BY 3.0), indeterminate reptile clade (public domain), Plesiosauroidea (Adam Stuart Smith, CC BY-SA 3.0), Pliosauridae (Nobu Tamura, CC BY-SA 3.0), and Testudinata (public domain).
Fig. 4 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 4. The thalassochelydian turtle Craspedochelys? sp., MZ VIII Vr71, from the Kimmeridgian of Krzyżanowice. A. Anterior left part of the carapacial rim (Fig. 6A: 4) in external (A1), visceral (A2), and peripheral (A3) views. B. Fragment of the anterior right part of the carapacial rim (Fig. 6A: 5) in external (B1), visceral (B2), and peripheral (B3) views. C. Unidentified part of the carapacial rim in external (C1), visceral (C2), and peripheral (C3) views. D. Fragment of the posterior part of the carapace (Fig. 6A: 6). A–C likely belong to the same individual as the material shown in Fig. 3. The numbers indicate marginal scutes.
Fig. 8 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 8. Selected tooth crowns of an indeterminate metriorhynchid (MZ VIII Vr-72) from an unknown locality and age, showing observable features of the enamel: "premaxillary" teeth in lingual view (A1, A2), "dentary" teeth (A3, A4), showing the only tooth crown accessible from lingual side (A3) and the smooth labial surface (A4). Note the absence of the smooth enamel band at the mid-section (A3). Abbreviations: dc, distal carina; rgl, ridglets; se, horizontal band of smooth enamel; vp, vermicular pattern. Scale bars 10 mm.
Fig. 11 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 11. Morphospace occupation of MZ VIII Vr-72 (white star) among Jurassic marine reptiles (thalattosuchians and plesiosaurs), resulting from principal coordinates analysis of the dataset of Foffa et al. (2018c), segregated along principal coordinates 1 and 2. See SOM 3 for extended results of the principal coordinates analysis. Silhouettes obtained from phylopic.org: Geosaurinae (Dmitry Bogdanov, CC BY 3.0), Metriorhynchinae and Teleosauroidea (Gareth Monger, CC BY 3.0), Plesiosauroidea (Adam Stuart Smith, CC BY-SA 3.0), and Pliosauridae (Nobu Tamura, CC BY-SA 3.0).
Fig. 3 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 3. The thalassochelydian turtle Craspedochelys? sp., MZ VIII Vr-71, from the Kimmeridgian of Krzyżanowice, parts of the carapace and plastron likely belonging to a single individual. A. Anterior part of the carapace and plastron (Fig. 6A: 2) in dorsal (A1) and ventral (A2) views. B. Posterior part of the carapace and plastron (Fig. 6A: 3) in dorsal (B1) and ventral (B2) views. The fragments likely belong to the same individual as the material shown in Fig. 4A–C.
Fig. 10. Isolated tooth crown ZPAL V. 69 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 10. Isolated tooth crown ZPAL V. 69/1 ("ZPAL V-KRZ/33") from the Kimmeridgian of Krzyżanowice, pertaining to an indeterminate vertebrate, incorrectly identified as Machimosaurus sp. by Tyborowski and Błażejowski (2019a).
Fig. 6. A in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 6. A. Approximate position of the identifiable fragments of the thalassochelydian turtle Craspedochelys? sp., MZ VIII Vr-71, within the shell, in dorsal (A1) and ventral (A2) views (schematic reconstruction of Craspedochelys spp. based on Anquetin et al. 2014, 2017, and TS personal observations, modified to fit the observed morphologies). Numbers represent the elements illustrated in the text: 1, Fig. 2; 2, Fig. 3A; 3, Fig. 3B; 4, Fig. 4A; 5, Fig. 4B; 6, Fig. 4D. Fragments likely belonging to the same individual are indicated by the same colour. B–E. Anterior edges of the carapace of Plesiochelys etalloni (Pictet and Humbert, 1857), NMS 8514/NMS 118 (B) and NMS 8727/NMS 116 (C), Craspedochelys jaccardi (Pictet, 1860), NMS 101 (D), and Craspedochelys picteti (Rütimeyer, 1873), NMS 9149/NMS 608 (E); all from the Kimmeridgian of Solothurn, Switzerland. The numbers indicate marginal scutes. Note the anteriorly protruding first marginal of Plesiochelys etalloni (B, C) and straight anterior edge in Craspedochelys spp. (D, E).
Fig. 7 in The giant pliosaurid that wasn't-revising the marine reptiles from the Kimmeridgian, Upper Jurassic, of Krzyżanowice, Poland
Fig. 7. Jaw fragments of an indeterminate metriorhynchid (MZ VIII Vr-72) from an unknown locality and age, preserved on the opposite sides of a limestone block: the "premaxilla" (A1) and the "dentary" (A2) of Tyborowski and Błażejowski (2019a, b).
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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.