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Fig. 9 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 9. Representative dentaries (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in left lateral view. A. MAD 10440. B. FMNH PR 2100. C. Illustration of landmark positions used for dentaries. Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. D. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (D1) and largest (D2) specimens from average.
Fig. 7 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 7. Representative jugals (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in right lateral view. A. UA 9944. B. FMNH PR 3369. C. FMNH PR 2100. D. Illustration of landmark positions used for jugals. Black circles, landmarks. E. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (E1) and largest (E2) specimens from average.
Fig. 10 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 10. Representative surangulars (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in left lateral view. A. FMNH PR 3369. B. FMNH PR 2100. C. Illustration of landmark positions used for surangulars, UA 9944 (not to scale). Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. D. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (D1) and largest (D2) specimens from average.
Fig. 8 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 8. Representative right quadrates (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in left lateral view. A. UA 10000. B. UA 9944. C. FMNH PR 3369. D–F. Landmark positions in anterior (D), left lateral (E), and posterior (F) views. G, H. Warped meshes, rostral (G) and lateral (H) views, showing idealized transformation of smallest (s) to largest (l) elements in the size range examined.
Fig. 6 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 6. Representative postorbitals (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in right lateral view. A. UA 9944. B. FMNH PR 3369. C. FMNH PR 2100. D. Illustration of landmark positions used for postorbitals. Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. E. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (E1) and largest (E2) specimens from average.
Fig. 3 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 3. Representative premaxillae (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in right lateral view. A. FMNH PR 3369. B. FMNH PR 2278. C. Illustration of landmark positions used for premaxillae. Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. D. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (D1) and largest (D2) specimens from average.
Fig. 4 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 4. Representative maxillae (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in right lateral view. A. UA 9944. B. FMNH PR. 3369. C. FMNH PR 2278. D. Illustration of landmark positions used for maxillae. Black circles, landmarks. E. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (E1) and largest (E2) specimens from average.
Fig. 2. Landmarks and semilandmarks designated using tpsDIG for 2D in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 2. Landmarks and semilandmarks designated using tpsDIG for 2D data (A) and landmark for 3D data (B). Landmark configurations aligned using generalized procrustes analysis, removing the effects of size, orientation, and position (C, D). Ontogenetic shape change visualized by generating deformation grids for 2D data (E) and warped meshes for 3D data (F).
Fig. 5 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 5. Representative lacrimals (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian (Upper Cretaceous) Maevarano Formation, northwestern Madagascar in left lateral view. A. UA 9944. B. FMNH PR 2100. C. Illustration of landmark positions used for lacrimals. Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. D. Ontogenetic shape change visualized by deformation grids relative to average; outline of smallest (D1) and largest (D2) specimens from average.
Fig. 1 in Ontogenetic changes in the craniomandibular skeleton of the abelisaurid dinosaur Majungasaurus crenatissimus from the Late Cretaceous of Madagascar
Fig. 1. Whole (B) and partial (A) skulls (rendered CT images) of Majungasaurus crenatissimus (Depéret, 1896) Lavocat, 1955 from the Maastrichtian Late Cretaceous) Maevarano Formation, northwestern Madagascar in left lateral view. A. UA 9944. B. FMNH PR 2100. C. Illustration of landmark positions used for articulated skull. Black circles, landmarks; white circles interconnected with solid lines, semilandmarks. D. Ontogenetic shape change visualized by deformation grids for 2D data (see Bhullar et al. 2012); outline of smallest (D1) and largest (D2) specimens from average.
Fig. 11 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 11. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Pedal phalanges I-1 (A–E) and I-2 (F, G) in dorsal (A), proximal (B, G), lateral (C, F), distal (D), and ventral (E) views.
Fig. 9 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 9 Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/006 (A), MPC-D 102/007 (B), MPC-D 102/008 (C) from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Tarsometatarsals in anterior (A1, B1), posterior (A2, B2), lateral (C), and distal A3, B4) views. In B1 and B2, the left metatarsal III has been mirrored and associated with the right metatarsi II and IV.
Fig. 1 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 1. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Right frontal in dorsal (A), medial (B), anterior (C), posterior (D), ventral (E), and lateral (F) views.
Fig. 3 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 3. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. A.?First dorsal rib. B. Posterior dorsal rib. C. Anterior dorsal rib.
Fig. 2 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 2. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Anterior dorsal vertebra in right lateral (A), left lateral (B), dorsal (C), anterior (D), and posterior (E) views.
Fig. 5 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 5. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Manual phalanges II-2 (A, B, I), II-3 (C, D, J), III-1 (E, F, K, L), and III-3 (G, H, M, N); in lateral or medial (A–H), proximal (I, K, M), and distal (J, L, N) views.
Fig. 6 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 6. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, MPC-D 102/007 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Proximal head of femur in anterior (A) and medial (G) views. Tibia in anterior (B, C), proximal (F), distal (H), and lateral (E, D) views.
Fig. 7 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 7. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981; right (A, MPC-D 102/006) and left (B, MPC-D 102/007) tarsometatarsus from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia; in dorsal (A1, B1), anterior (B2), lateral (B3), posterior (B4), and medial (B5) views. Contact between distal tarsal IV and fifth metatarsal (A2). Abbreviations: dt III, third distal tarsal; dt IV, fourth distal tarsal; MT II, second metatarsal; MT V, fifth metatarsal.
Fig. 4 in New specimens of the crested theropod dinosaur Elmisaurus rarus from Mongolia
Fig. 4. Crested theropod dinosaur Elmisaurus rarus Osmólska, 1981, ZPAL MgD-I/98 from Nemegt Formation (Upper Cretaceous), Western Sayr of Nemegt locality, Mongolia. Proximal portion of right scapula in lateral view (A); proximal portion of right ischium in lateral view (B); proximal head of left femur in anterior view (C); distal end of right tibia in posterior view (D).
Fig. 4 in Pathological phalanges in a camarasaurid sauropod dinosaur and implications on behaviour
Fig. 4. Photo (A) and drawing (B) of the right pedal ungual II of the camarasaurid sauropod SMA 0002 (Upper Jurassic Morrison Formation, HoweStephens Quarry, Wyoming, USA) in proximal view, showing the broken surface indicating overgrowth attachment. Modified from Tschopp et al. (2015).
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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.