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Fig. 2 in Functional morphology and biomechanics of the cynodont Trucidocynodon riograndensis from the Triassic of Southern Brazil: Pectoral girdle and forelimb
Fig. 2. The holotype of the non-mammalian cynodont Trucidocynodon riograndensis Oliveira, Soares, and Schultz, 2010 (UFRGS PV-1051-T) from Carnian (Upper Triassic) of Agudo municipality, state of Rio Grande do Sul, Brazil.
Fig. 1. A in Functional morphology and biomechanics of the cynodont Trucidocynodon riograndensis from the Triassic of Southern Brazil: Pectoral girdle and forelimb
Fig. 1. A. Map of South America with the state of Rio Grande do Sul shaded. B. Location of the Agudo municipality (arrow) in the state of Rio Grande do Sul, where Middle and Upper Triassic rocks crop out. C. Sequence stratigraphy of Brazilian rocks containing Triassic vertebrates, with the Hyperodapedon Assemblage Zone highlighted (modified from Horn et al. 2014).
Fig. 3 in Functional morphology and biomechanics of the cynodont Trucidocynodon riograndensis from the Triassic of Southern Brazil: Pectoral girdle and forelimb
Fig. 3. Pectoral appendicular skeleton of non-mammalian cynodont Trucidocynodon riograndensis Oliveira, Soares, and Schultz, 2010 (UFRGS PV- 1051-T) from Carnian (Upper Triassic) of Agudo municipality, state of Rio Grande do Sul, Brazil. A–D. Pectoral girdle; right scapulocoracoid in lateral A) and ventral (D) views; right clavicle in dorsal view (C); interclavicle in ventral view (B). E–J. Forelimb; left humerus in anterior (E) and posterior F) views (F1, photograph; F2, interpretation of the attachment areas of some muscles); right ulna (G) and right radius (H) in lateral view; right hand in dorsal view (I). J. Reconstruction of the hand in dorsal (J1) and lateral (J2) views (gray-shaded bones were not preserved; the black bar in J2 represents the potential orientation of the forearm bones).
Fig. 7 in Functional morphology and biomechanics of the cynodont Trucidocynodon riograndensis from the Triassic of Southern Brazil: Pectoral girdle and forelimb
Fig. 7. Locomotory cycle of the right forelimb of Trucidocynodon riograndensis, in lateral (A) and anterior (B) views. The cycle begins with the leftmost image and its phases are those described in the text.
FIGURE 17 in Soft-tissue anatomy of the Plesiosaur pectoral girdle inferred from basal Eosauropterygia taxa and the extant phylogenetic bracket
FIGURE 17. Comparison of pectoral girdle musculature reconstruction between this study and previously published reconstructions.
FIGURE 16. M. costocoracoideus. Reconstruction for Neusticosaurus 1 in Soft-tissue anatomy of the Plesiosaur pectoral girdle inferred from basal Eosauropterygia taxa and the extant phylogenetic bracket
FIGURE 16. M. costocoracoideus. Reconstruction for Neusticosaurus 1 in anterior view, 2 in ventral view, 3 in lateral view, 4 fleshed-out muscle reconstruction and 5 complete skeletal reconstruction in lateral view. Reconstruction for Ceresiosaurus 6 in anterior view, 7 in ventral view, 8 in lateral view, 9 fleshed-out muscle reconstruction and 10 complete skeletal reconstruction in lateral view. Reconstruction for Rhomaleosaurus 11 in anterior view, 12 in ventral view, 13 in lateral view, 14 fleshed-out muscle reconstruction and 15 complete skeletal reconstruction in lateral view.
FIGURE 1 in Soft-tissue anatomy of the Plesiosaur pectoral girdle inferred from basal Eosauropterygia taxa and the extant phylogenetic bracket
FIGURE 1. Three topological hypotheses for the evolution of the pectoral girdle elements from the basal neodiapsid condition to basal eosauropterygian condition are depicted in two-dimensions. Large black dot – glenoid; Small black dot – coracoid foramen; A- anterior margin of the coracoid; M-medial margin of the coracoid; CL – clavicle; INCL – interclavicle; SC – scapula; ST – sternum.
FIGURE 3 in Soft-tissue anatomy of the Plesiosaur pectoral girdle inferred from basal Eosauropterygia taxa and the extant phylogenetic bracket
FIGURE 3. Muscle reconstruction of the pectoral girdle musculature of the Eosauropterygia using data from the extant phylogenetic bracket, the fossil record and developmental patterns.
FIGURE 5. M. subcoracoscapularis. Reconstruction for Neusticosaurus 1 in Soft-tissue anatomy of the Plesiosaur pectoral girdle inferred from basal Eosauropterygia taxa and the extant phylogenetic bracket
FIGURE 5. M. subcoracoscapularis. Reconstruction for Neusticosaurus 1 in anterior view, 2 in ventral view, 3 in lateral view, 4 in fleshed-out muscle reconstruction and 5 complete skeletal reconstruction in lateral view. Reconstruction for Ceresiosaurus 6 in anterior view, 7 in ventral view, 8 in lateral view, 9 fleshed-out muscle reconstruction and 10 complete skeletal reconstruction in lateral view. Reconstruction for Rhomaleosaurus 11 in anterior view, 12 in ventral view, 13 in lateral view, 14 fleshed-out muscle reconstruction and 15 complete skeletal reconstruction in lateral view.
FIGURE 18. Diplacanthus tenuistriatus isolated shoulder girdle complexes. 1–4, NMS G.2014.15.21 in The diplacanthid fishes (Acanthodii, Diplacanthiformes, Diplacanthidae) from the Middle Devonian of Scotland
FIGURE 18. Diplacanthus tenuistriatus isolated shoulder girdle complexes. 1–4, NMS G.2014.15.21 from Marwick, Orkney: 1, external surface of scapulocoracoid, pectoral fin spine, pinnal plate and admedian spine; 2, admedian spine; 3, 4, scale-like ornament on pinnal plate; 5, NMS G.2014.15.22 from Marwick, Orkney, internal surface; 6–9, transverse sections of NMS G.2014.4.20 from Marwick, Orkney: 6, pinnal plate; 7, multiple odontode on plate; 8, scalelike ornament; 9, transverse section through pinnal plate, pectoral fin spine base, scapulocoracoid and perichondral bone sheet; 10, 11, NMS G.2014.4.27 from Flashes, Hoy, Orkney, transverse section through base of admedian spine and inner perichondral bone sheet; 10, whole width; 11, scale-like ornament in groove. Scale bars equal 1 cm in 1, 5; 5.0 mm in 2; 1.0 mm in 3, 4, 6; 0.5 mm in 9, 10; 0.1 mm in 7, 8, 11; 0.05 mm in 4.
FIGURE 7. Diplacanthus crassisimus shoulder girdles. 1, NMS G in The diplacanthid fishes (Acanthodii, Diplacanthiformes, Diplacanthidae) from the Middle Devonian of Scotland
FIGURE 7. Diplacanthus crassisimus shoulder girdles. 1, NMS G.Canon Kyle no. 2 from Tynet Burn, Moray, showing ventral view of the shoulder girdle complexes; 2, NHM P.1357a from Tynet Burn, Moray, pectoral girdle region; 3, NHM P.22198 from Achanarras Quarry, Caithness, complete specimen; 4, NMS G.2014.44.3 from the Edderton, Ross and Cromarty; 5, 6, left shoulder girdle complex of NMS G.2014.4.30 from Cruaday Quarry, Orkney; 7, NMS G.2014.44.4 from the Edderton, Ross and Cromarty, natural transverse section through articulated uncompressed shoulder girdle region (prepelvic spines subsequently Sollas sectioned). Scale bars equal 1 cm.
Fig. 1 in Agrilozodes suarezi (Coleoptera: Buprestidae) as secondary colonizer of a Sclerolobium sp. branch girdled by Oncideres saga (Coleoptera: Cerambycidae)
Fig. 1. Sclerolobium sp. branch girdled by the twig girdler (A), the twig girdler beetle Oncideres saga (Coleoptera: Cerambycidae) (B), and secondary borer beetles, Tropibidion signatum signatum (Coleoptera: Cerambycidae) (C), Agrilozodes suarezi (D), and Agrilus sp. 1 (Coleoptera: Buprestidae) (E), emerged from this branch.
FIG. 5 in The oldest known European Neogene girdled lizard fauna (Squamata, Cordylidae), with comments on Early Miocene immigration of African taxa
FIG. 5. — aff. Palaeocordylus bohemicus Roček, 1984; detail of the 6th-12th tooth in posterolingual view. Scale bar: 500 µm.
FIG. 4 in The oldest known European Neogene girdled lizard fauna (Squamata, Cordylidae), with comments on Early Miocene immigration of African taxa
FIG. 4. — aff. Palaeocordylus bohemicus Roček, 1984; detail of the tooth from the medial region of the dentary tooth row in lingual view (terms after Richter 1994). Scale bar: 200 µm.
FIG. 3 in The oldest known European Neogene girdled lizard fauna (Squamata, Cordylidae), with comments on Early Miocene immigration of African taxa
FIG. 3. — aff. Palaeocordylus bohemicus Roček, 1984; detail of the region with intramandibular septum. Scale bar: 2 mm.
FIG. 6 in The oldest known European Neogene girdled lizard fauna (Squamata, Cordylidae), with comments on Early Miocene immigration of African taxa
FIG. 6. —? Cordylidae indet.; the left maxilla Ah-939 SGDB:A, labial view; B, C, D, lingual views with the details of the tooth crowns. Scale bars: A, B, 2.5 mm; C, 1 mm; D, 500 µm.
FIG. 2 in The oldest known European Neogene girdled lizard fauna (Squamata, Cordylidae), with comments on Early Miocene immigration of African taxa
FIG. 2. — aff. Palaeocordylus bohemicus Roček, 1984 from the locality Merkur-North; right dentary (Ah-1088 SGDB) in lingual view. Scale bar: 5 mm.
Fig. 2 in A Molecular Perspective on the Phylogeny of the Girdled Lizards (Cordylidae, Squamata)
Fig. 2. Tree based on relative cost parameters (transitions: transversions: gaps) at 1: 2: 1. Numbers on internal stems are Bremer values.
Fig. 1 in A Molecular Perspective on the Phylogeny of the Girdled Lizards (Cordylidae, Squamata)
Fig. 1. Tree based on relative cost parameters (transitions: transversions: gaps) at 1: 1: 1. Numbers on internal stems are Bremer values.
Fig. 5 in A Molecular Perspective on the Phylogeny of the Girdled Lizards (Cordylidae, Squamata)
Fig. 5. Tree based on scale structure evidence of Harvey and Gutberlet (1995). A: macrohoneycomb present on venter; B: macrohoneycomb present on dorsal scales; C: flaplike free margins associated with the cellridge system; D: short ridgelike projections in the center of the oberhautchen cells.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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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.