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Fig. 3 in Comparative bone microstructure of three archosauromorphs from the Carnian, Late Triassic Chañares Formation of Argentina
Fig. 3. Femur of archosauromorph Lagerpeton chanarensis Romer, 1971 (PVL-4625, in polarized light) from La Rioja province, NW Argentina; Chañares Formation, Carnian (Late Triassic). Section showing the inner circumferential layer and the cortex (A1), detail of the compact coarse cancellous bone (A2). Abbreviations: CCCB, Compact Coarse Cancellous Bone; ICL, Inner Circumferential Layer. Scale bars 300 μm.
Fig. 4 in Comparative bone microstructure of three archosauromorphs from the Carnian, Late Triassic Chañares Formation of Argentina
Fig. 4. Tibia of archosauromorph Lagerpeton chanarensis Romer, 1971 PVL-4625, in lambda light) from La Rioja province, NW Argentina; Chañares Formation, Carnian (Late Triassic). Section showing the main features of the tibia bone microstructure. Abbreviations: ICL, Inner Circumferential Layer; LAG, line of arrestred growth.
Fig. 1 in Comparative bone microstructure of three archosauromorphs from the Carnian, Late Triassic Chañares Formation of Argentina
Fig. 1. Long bones of archosauromorphs from La Rioja province, NW Argentina; Chañares Formation, Carnian (Late Triassic). A, B. Lagerpeton chanarensis Romer, 1971 (PVL-4625) femur in posteromedial view (A) and tibia in lateral view (B). C. Chanaresuchus bonapartei Romer, 1971 (PULR-V 125), femur in posteromedial view. D. Tropidosuchus romeri Arcucci, 1990 (PVL-4604), femur in posteromedial view. Arrows indicate place of the midshaft extraction of bone tissue samples. Scale bars 10 mm.
Fig. 6 in Paleocene of Menat Formation, France, reveals an extraordinary diversity of orthopterans and the last known survivor of a Mesozoic Elcanidae
Fig. 6. Wings and hind legs of chorotypid orthopteran Paleochina duvergeri gen. et sp. nov., holotype, MNT NEL 3267 from Paleocene of Menat, France.
Fig. 3 in Paleocene of Menat Formation, France, reveals an extraordinary diversity of orthopterans and the last known survivor of a Mesozoic Elcanidae
Fig. 3. Habitus of Ensifera from Paleocene of Menat, France. A. Prophasgonura lineatocollis Piton, 1940, holotype, MNHN.F.R07050. B. Conocephalus martyi Piton, 1940, holotype, MNHN.F.R07019.
Fig. 8 in Paleocene of Menat Formation, France, reveals an extraordinary diversity of orthopterans and the last known survivor of a Mesozoic Elcanidae
Fig. 8. Tegmen of Elcanid orthopteran Cenoelcanus menatensis gen. et sp. nov., holotype, MNHN.F.A71198 from Paleocene of Menat, France. Photograph (A1), reconstruction (A2). Abbreviations: CuA/P, cubitus anterior/posterior; CuPaα, most anterior branch of CuP; M, median vein; RA/P, radius anterior/posterior; ScP, subcostal posterior.
Fig. 2 in Paleocene of Menat Formation, France, reveals an extraordinary diversity of orthopterans and the last known survivor of a Mesozoic Elcanidae
Fig. 2. Grylloidean orthopteran Menatgryllus longixiphus gen. et sp. nov., holotype, MNT-1053 from Paleocene of Menat, France. Photograph of habitus A1), reconstruction of hind tibiae and tarsus (A2, left; A3, right).
Fig. 1 in Paleocene of Menat Formation, France, reveals an extraordinary diversity of orthopterans and the last known survivor of a Mesozoic Elcanidae
Fig. 1. Orthopteran Grylloidea sp., MNT NEL 1681 from Paleocene of Menat, France. A. Habitus. B. Apex of hind tibia.
Fig. 5 in Multispecies leatherback turtle assemblage from the Oligocene Chandler Bridge and Ashley formations of South Carolina, USA
Fig. 5. Ossicles of leatherback turtle cf. Psephophorus sp. from Oligocene of South Carolina, USA. CCNHM 5460 (A) and CCNHM 5543 (B), in dorsal A1, B1), visceral (A2, B2), and sutural (A3, B3) views.
Fig. 3 in Multispecies leatherback turtle assemblage from the Oligocene Chandler Bridge and Ashley formations of South Carolina, USA
Fig. 3. Ossicles of leatherback turtle Natemys sp. 2 from Oligocene of South Carolina, USA. CCNHM 4287.1 (A), CCNHM 4287.2 (B), and CCNHM 4910 (C), in dorsal (A1–C1), visceral (A2–C2), and sutural (A3–C3) views. Arrows indicate the fissure on the visceral and sutural surfaces of CCNHM 4287.2, and note the stratified internal structure of CCNHM 4287.1.
Fig. 1 in A new hermit crab (Anomura, Paguroidea) out of its shell from the middle Eocene Arguis Formation, (Huesca, Spain)
Fig. 1. Paguroid crab Diogenes augustinus sp. nov. from the upper Bartonian of Arguís Formation, Eocene, Lúsera, Huesca, Spain. A. Holotype MPZ2020/54), in left lateral (A 1), right lateral (A 2), and frontal (A 3) views. Dorsal region details (A 4): light blue, eyestalk; dark blue, maxilliped?; turquoise, antenna; light green, massetic; dark green, anterior gastric; orange, lateral branchial; purple, keraial; light orange, anterior branchial; dark orange, mesobranchial; dark yellow, metabranchial; red, cardiac. Shield details (A 5). P2, P3, P4?, pereiopods. B. MPZ2020/55, paratype, isolated left cheliped in mesial (B 1), outer (B 2), and dorsal (B 3) views. Specimens have been photographed dry and coated with an ammonium chloride sublimated.
Fig. 2 in A new hermit crab (Anomura, Paguroidea) out of its shell from the middle Eocene Arguis Formation, (Huesca, Spain)
Fig. 2. Reconstruction of Diogenes augustinus sp. nov. Parts shown in grey are those preserved in the fossil material available. Other parts have been reconstructed from the most closely related modern taxa.
Fig. 7 in Ecomorphology and bone microstructure of Proterochampsia from the Chañares Formation
Fig. 7. Phylogenetic interrelationships of Proterochampsia and other archosauriforms showing the histological features in different taxa. Erytrosuchus rib; proterochampsids femur; Euparkeria humerus, Phytosauria femur; Luperosuchus large long bone; Aetosauria humerus; Lewisuchus tibia; Herrerasaurus tibia (modified from Ricqlès et al. 2003, 2008; Garcia Marsà et al. 2017).
Fig. 6 in Ecomorphology and bone microstructure of Proterochampsia from the Chañares Formation
Fig. 6. Fibula microstructure of Proterochampsia indet. from the early Carnian Chañares Formation at the Río Gualo locality. A. PULR-V 117, in anterior view; photograph of proximal part (A2), explanatory drawing A1); lines indicate the position of the cross-sections (redrawn from Romer 1972). B. PULR-V 117, cross-section in general view (B1); details (B2, B3), photomicrographs in plane-polarized light; note the fibrolamellar bone (fbl) with primary osteons (po) on the anteromedial surface; secondary osteons (so) and resorption cavities in the mid- to inner cortical region. Abbreviations: a, anterior; l, lateral; p, posterior.
Fig. 1. A in Ecomorphology and bone microstructure of Proterochampsia from the Chañares Formation
Fig. 1. A. Geographic location of the studied basins. B. Map showing location of Ischigualasto-Villa Union Basin (Argentina) and Paraná Basin (Brazil) and presence of the proterochampsids taxa. Satellite image taken from Google Earth.
Fig. 3 in Ecomorphology and bone microstructure of Proterochampsia from the Chañares Formation
Fig. 3. Reconstruction of the skeleton of Chanaresuchus Romer, 1971 (modified from Mancuso et al. 2014).
APPENDIX 2 in Discovery of Oligocene-aged mammals in Glacier National Park (Kishenehn Formation), Montana
APPENDIX 2. — Dental morphology in occlusal view of CM 87801, Paciculus Cope, 1879 from the Kishenehn Formation.
FIG. 2 in Discovery of Oligocene-aged mammals in Glacier National Park (Kishenehn Formation), Montana
FIG. 2. — Morphology of GLAC 26988, Pronodens transmontanus (Douglass, 1903), from the Kishenehn Formation: A, lateral view of right dentary; B, medial view of right dentary; C, lateral view of left dentary; D, medial view of left dentary; E, line drawing of the occlusal view showing tooth morphology of the left dentary. A photo of the occlusal view of the teeth is showed in Appendix 1. Scale bars: A-D, 2 cm; E, 4 mm.
FIG. 6 in Discovery of Oligocene-aged mammals in Glacier National Park (Kishenehn Formation), Montana
FIG. 6. — Morphology of CM 87801, Paciculus Cope, 1879 from the Kishenehn Formation: A, lateral view of right dentary; B, occlusal view of dentition, m1-2. Abbreviations: Aid, anteroconid; ALac, anterior labial cingulum; ALic, anterior lingual cingulum; Atid, anterolophid; Ecid, ectostylid; Entid, entolophid; Eid, entoconid; Hid, hypoconid; Lc, labial cingulum; Mepid, mesolophid; Mesid, mesostylid; Mid, metaconid; Pc, posterior cingulum; Pid, protoconid; PtiI, protolophid I; PtidII, protolophid II. A photo of the occlusal view of the teeth is showed in Appendix 2. Scale bars: A, 2 mm; B, 1 mm.
FIG. 5 in Discovery of Oligocene-aged mammals in Glacier National Park (Kishenehn Formation), Montana
FIG. 5. — Morphology of GLAC 26987, fossil Miohippus Marsh, 1874 from the Kishenehn Formation: A, lateral view of left dentary; B, medial view of left dentary; C, occlusal view of left dentary; D, lateral view of right dentary; E, medial view of right dentary; F, occlusal view of the right dentary. Scale bar: 2 cm.
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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.