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1,183 results for “skeleton”
MCR LTER: Coral Reef: Dead coral skeletons impair key recovery processes following coral bleaching; data for Kopecky et al., 2024 Global Change Biology
The data included in this data package were collected on the North shore of Moorea, French Polynesia, from 2015-2023 to explore how dead coral skeletons (e.g,, left after coral bleaching events) influence critical processes tied to coral reef resilience. Together, these various datasets were used for analyses in the manuscript entitled "Changing disturbance regimes, material legacies, and stabilizing feedbacks: dead coral skeletons impair key recovery processes following coral bleaching", published in Global Change Biology. These data are in support of a publication Kopecky et al. (2024) Global Change Biology, and were a part of the thesis of K. Kopecky. The manuscript title and author list are as follows: Changing disturbance regimes, material legacies, and stabilizing feedbacks: dead coral skeletons impair key recovery processes following coral bleaching. Kai Kopecky, Russell J. Schmitt, Sally J. Holbrook. This material is based upon work supported by the U.S. National Science Foundation under Grant No. OCE 22-24354 (and earlier awards) as well as a generous gift from the Gordon and Betty Moore Foundation. Research was completed under permits issued by the French Polynesian Government (Délégation à la Recherche) and the Haut-commissariat de la République en Polynésie Francaise (DTRT) (Protocole d'Accueil 2005-2024). This work represents a contribution of the Moorea Coral Reef (MCR) LTER Site.
MALDI-TOF-MS spectra of historical whale skeletons from the Museum of Zoology, Strasbourg
<p>Spectra data from historical whale skeletons from the Museum. Samples were acid demineralized followed by gelatinization, digestion with trypsin, and peptide purification on C18 filters. They were run on on Bruker autoflex MALDI-TOF-MS. Mzml file formats for the raw data are provided here along with a file information csv file which provides the identification of the samples.<br> <br> For more information see the associated publciation.</p>
Figure 1.28 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.28. Ivan, during excavation showing scapuia-coracoid, ribs, and other bones. Photo courtesy Gary Olson.
Figure 1.27. Thomas, LACM 7509 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.27. Thomas, LACM 7509/150167, during excavaton (A); right femur during excavation (B) right dentary (C) Photos: (A) Doug Goodreau; (B) Ursula Goelich; (C) Gary Takeuchi. All photos courtesy Natural History Museum of Los Angeles County.
Figure 1.25. Bucky, TCM 2001.90.1 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.25. Bucky, TCM 2001.90.1, portion of the large Bucky excavation (A); skeleton as mounted (B).
Figure 1.23 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.23. UCRC PV1, as found in large, weathered blocks (A); left arm, hand scapula, coracoid, and furcula undergoing preparation (B). Photos: (A) Wendy Taylor; (B) Paul Sereno.
Figure 1.15. Scotty, RSM 2523.8 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.15. Scotty, RSM 2523.8., during excavation (A); skull on display at the RSM Fossil Research Station (B). Photos courtesy Royal Saskatchewan Museum.
Figure 1.18 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.18. Peck's Rex, MOR 980, cast of skeleton at the Fort Peck Interpretive Center (A); cast of skull (B). Photos courtesy Nate Murphy
Figure 1.13. DMNH 2827 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.13. DMNH 2827, left scapula and coracoid (A); left ilium in medial (B) and lateral (C) views; left femur in anterior (D) and lateral (E) views; right tibia and astragalus in anterior view (F); right fibula in lateral (G) and medial (H) views.
Figure 1.7 in One Hundred Years of Tyrannosaurus rex: The Skeletons
Figure 1.7. Huxley-rex, RTMP 81.6.1, mixture of real bones and cast, with original pelvis in foreground. Photo by Peter Larson.
Figures 6. Polyporivora picta, head skeleton from a in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 6. Polyporivora picta, head skeleton from a puparium. (A) Lateral view, labial teeth to the right, length 0.6 mm; (B) apical view of labial teeth.
FIG. 13 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 13. — Inner ear of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp. Semitransparent skull for orientation, showing location of left and right bony labyrinth, with inset showing enlarged right inner ear. Scale bar: 1 mm.
FIG. 11 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 11. — Vertebrae: A, posterior trunk vertebra (precloacal vertebra number 200) of Lichanura trivirgata SMF-PH 21; B, posterior trunk vertebra of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp.; C-E, anterior, middle and distal caudal vertebrae of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp.; F, distal caudal vertebra of Lichanura trivirgata CM 145332. Views: dorsal, ventral, left lateral, anterior, posterior. Scale bar: A, F, 2 mm; B-E, 1 mm.
FIG. 12 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 12. — Phylogenetic relationships of Rageryx schmidi n. gen., n. sp.: A, strict consensus of 176 equally most-parsimonious trees; bootstrap percentages>50% are shown above branches; B, majority-rule consensus of 15 000 trees from standard Bayesian analysis. Posterior probabilities are shown above branches.
FIG. 9 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 9. — Dentary: A-D, left dentary of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in dorsal, ventral, lateral, and medial views, respectively; E-G, left dentary of Eryx johnii BM 1930.5.8.31 in dorsal, lateral, and medial views, respectively; H-J, left dentary of Lichanura trivirgata CM 145332 in dorsal, lateral, and medial views, respectively. Scale bar: A-D, 1 mm; E-J, 2 mm.
FIG. 7 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 7. — Pterygoid: A, B, left pterygoid of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in dorsal and ventral views, respectively; C, D, right pterygoid of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in dorsal and ventral views, respectively; E, F, left pterygoid of Eryx johnii BM 1930.5.8.31 in dorsal and ventral views, respectively; G, H, left pterygoid of Lichanura trivirgata CM 145332 in dorsal and ventral views, respectively. Scale bar: A-D, 1 mm; E-H, 2 mm.
FIG. 8 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 8. — Ectopterygoid: A-D, left ectopterygoid of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in dorsal, ventral, lateral, and medial views, respectively; E, F, right ectopterygoid (mirrored) of Eryx jayakari BM 1909.10.15.8 in dorsal and ventral views, respectively; G-I, left ectopterygoid of Lichanura trivirgata CM 145332 in dorsal, ventral, and medial views, respectively. Scale bar: A-D, 1 mm; E-I, 2 mm.
FIG. 6 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 6. — Prootic: A-C, left prootic of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in lateral, medial, and ventral views, respectively. A small portion of the parietal is probably artifactually associated here (blurred), but a more precise separation is not possible; D-F, left prootic of Eryx johnii BM 1930.5.8.31 in lateral, medial, and ventral views, respectively; G-I, left prootic of Lichanura trivirgata CM 145332 in lateral, medial, and ventral views, respectively. Scale bar: A-C, 1 mm; D-I, 2 mm.
FIG. 4 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 4. — Frontal: A-D, left frontal of HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp., in dorsal, ventral, lateral, and anterior views, respectively; E-H, left frontal of Eryx johnii BM 1930.5.8.31 in dorsal, ventral, lateral, and anterior views, respectively; I-L, left frontal of Lichanura trivirgata CM 145332 in dorsal, ventral, lateral, and anterior views, respectively. Scale bar: A-D, 1 mm; E-L, 2 mm.
FIG. 1 in A nearly complete skeleton of the oldest definitive erycine boid (Messel, Germany)
FIG. 1. — HLMD-Me 9723, holotype of Rageryx schmidi n. gen., n. sp.: A, photograph of whole specimen; B, photograph of skull (coated with ammonium chloride) in dorsal view; C, 3D rendering of skull, based on CT scan, in ventral view; D, photograph of tail (coated with ammonium chloride) in roughly dorsal view; E, 3D rendering of tail, based on CT scan, in roughly ventral view. Scale bars: A, 2 cm; B-E, 1 cm.
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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.