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FIGURE 16. Right manual ungual phm I-2 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 16. Right manual ungual phm I-2 of the Camarasaurus SMA 0002 in medial (left), dorsal, lateral, and palmar (right, top to bottom) views. Schematic drawing indicates location of the claw. The metal bar overlain with semi-transparent white in the photo of the lateral view functions as support for the mount. Abbreviation: mg, medial groove. Scale bar equals 5 cm.
FIGURE 27 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 27. Photographs and drawings in medial view of the phalanges of the right pedal digit I (1, 2), digit II (3, 4), digit III (5, 6), and digit IV (7, 8). The oval outlines in (5), (6) indicate an element where no photographs were available in medial view (php III-3). Abbreviations: II-1, first phalanx of digit II. Photographs taken by Esther Premru.
FIGURE 17 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 17. Photographs and drawings of the phalanges of the left manual digit II. Manual phalanx II-1 (1-4, 7, 8) and II-2 (3, 5, 6) in medial (1, 2), anterior (3-5), and distal views (6-8). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: II-1, first phalanx of digit II; mc, metacarpal. Photographs taken by Rosemarie Roth.
FIGURE 15 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 15. Photographs and drawings of the phalanges of the left manual digit I. Manual phalanx I-1 in medial (1, 2) and posterior views (3, 4). Manual ungual (phm I-2) in medial (5, 6), posterior (7, 8), distal (9, 10), and medial views (11, 12). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: mc, metacarpal; V-1, first phalanx of digit V. Photographs taken by Rosemarie Roth.
FIGURE 14 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 14. Photographs and drawings of the left metacarpal V in anterior (1, 2) and lateral views (3, 4). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: mc, metacarpal; V-1, first phalanx of digit V. Photographs taken by Rosemarie Roth.
FIGURE 13 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 13. Photograph and drawing of the left metacarpal IV in anterior view. Light gray represents adjoining bones, dark gray original matrix. Light gray represents adjoining bones, dark gray original matrix. Abbreviations: mc, metacarpal; V-1, first phalanx of digit V. Photographs taken by Rosemarie Roth.
FIGURE 12 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 12. Photographs and drawings of the left metacarpal III in medial (1, 2) and anterior views (3, 4). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: carp, carpal; II-1, first phalanx of digit II; lat, lateral; mc, metacarpal. Photographs taken by Rosemarie Roth.
FIGURE 11 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 11. Photographs and drawings of the left metacarpal II in anteromedial (1, 2) and anterior views (3, 4). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: carp, carpal; II-1, first phalanx of digit II; mc, metacarpal; med, medial. Photographs taken by Rosemarie Roth.
FIGURE 10 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 10. Photographs and drawings of the left metacarpal I in medial (1, 2) and anterior views (3, 4). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: carp, carpal; I-1, first phalanx of digit I; mc, metacarpal; med, medial. Photographs taken by Rosemarie Roth.
FIGURE 8 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 8. Photographs and drawings of the left medial carpal in proximal (1, 6), anterior (2, 7), medial (3, 8), posterior (4, 9), and lateral views (5, 10). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: carp, carpal; lat, lateral; mc, metacarpal. Photographs taken by Rosemarie Roth.
FIGURE 9 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 9. Photographs and drawings of the left lateral carpal in proximal (1, 2), anterior (3, 4), and lateral views (5, 6). Light gray represents adjoining bones, dark gray original matrix. Abbreviations: carp, carpal; mc, metacarpal; med, medial. Photographs taken by Rosemarie Roth.
FIGURE 3 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 3. Detailed quarry map of the specimen SMA 0002 excavated in 1992-93 at the Howe-Stephens Quarry. Note the preservation of skin impressions in various regions of the skeleton. Modified from Ayer (2000).
FIGURE 7 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 7. General drawing of the right manus in posterior view. Phm II-1 and II-2 are probably misidentified (indicated with an (m), phm III-2 might actually be phm II-2 (arrow, see text for more detailed discussion). Scale bar equals 10 cm.
FIGURE 5 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 5. The autopodia of SMA 0002 as mounted. The left manus (1) and pes (3) are visible in anterior view, the right manus (2) and pes (4) in posterior view. The mounted unguals of the right manus and pes are casts, as well as the right php IV-2. The original unguals are stored separately at the SMA. Scale bar equals 10 cm.
FIGURE 6 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 6. Process of preparing a real 3D model of the left manus and pes of Camarasaurus: skeletal model (1) as a pre-stage, (2) shows the finished model, (3) shows the imprints produced by the model.
FIGURE 4 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 4. The original quarry maps of both manus (1), the right pes (2), and the left pes (3). Note the plaster cast in (1) that does not include all phalanges, the skin impressions in (2), and the bones labeled 'neg' (= negative) in (3). The latter were already separated during the excavation. Black elements are carpal or tarsal bones, dark gray marks metapodials, and light gray phalanges. Rectangles relate to grids on the detailed quarry map of SMA 0002 (see Figure 3). Abbreviations: f, fibula; h, humerus; r, radius; t, tibia; u, ulna.
FIGURE 2 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 2. General quarry map of the Howe-Stephens Quarry north of Shell, Wyoming. Circle indicates Camarasaurus SMA 0002. Prepared by E. Premru, © by SMA.
FIGURE 1 in Articulated bone sets of manus and pedes of Camarasaurus (Sauropoda, Dinosauria)
FIGURE 1. Location of the Howe Ranch quarries in the Bighorn Basin, North-Central Wyoming, USA (grey star). Abbreviations: CO, Colorado; ID, Idaho, MT, Montana, N, north; NE, Nebraska; SD, South Dakota; UT, Utah. Scale bar equals 100 km. Modified from Christiansen and Tschopp (2010).
Data set of "Large superconducting diode effect in ion-beam patterned Sn-based superconductor nanowire/topological Dirac semimetal planar heterostructures"
<p><span>Superconductor/topological material heterostructures are intensively studied as a platform for topological superconductivity and Majorana </span><span>physics</span><span>. However, the high cost of nanofabrication and the difficulty of preparing high-quality interfaces between the two dissimilar materials are common obstacles that hinder the observation of intrinsic physics and </span><span>the </span><span>realisation of scalable topological devices and circuits. </span><span>Here, we demonstrate an innovative method to directly draw nanoscale superconducting </span><span><span>beta-tin (</span></span><span><span>β-Sn</span></span><span><span>)</span></span><span><span> patterns of any shape in the plane of a topological Dirac </span></span><span><span>semimetal</span></span><span><span> (TDS) </span></span><span><span>alpha-tin (</span></span><span><span>α-Sn</span></span><span><span>)</span></span><span><span> thin </span></span><span><span>film</span></span><span><span> by irradiating a focused ion beam (FIB</span></span><span><span>). We utilise</span></span><span><span> the property that α-Sn undergoes a phase transition to superconducting β-Sn upon heating by FIB. </span></span><span><span>In β-Sn nanowires embedded in a TDS α-Sn thin film, we observe large </span></span><span><span>non-reciprocal</span></span><span><span> superconducting transport, where the critical current changes by 69% upon reversing the current direction. The superconducting diode rectification ratio <em>η</em> reaches a maximum of 35% when the magnetic field is applied parallel to the current, </span></span><span><span>distinguishing</span></span><span><span> itself from all the previous reports</span></span><span><span>. Moreover, it</span></span><span><span> oscillates between alternate signs with increasing magnetic field strength. </span></span><span><span>The angular</span></span><span><span> dependence of <em>η</em> on the magnetic field and current directions is similar to that of the chiral anomaly effect in TDS α-Sn, suggesting that the </span></span><span><span>SDE</span></span><span><span> may occur at the α-Sn/</span></span><span><span>β</span></span><span><span>-Sn interfaces where the TDS α-Sn becomes superconducting by a proximity effect.</span></span><span><span> As superconducting TDSs are expected candidates for topological superconductivity and harboring Majorana bound states,</span></span><span><span> t</span></span><span><span>he ion-beam patterned Sn-based superconductor/TDS planar structures thus </span></span><span><span>show promise</span></span><span><span> as a universal platform for investigating novel quantum physics and devices based on topological superconducting circuits of any shape.</span></span></p>
Bayesian inference of the dense matter equation of state built upon extended Skyrme interactions [Data Set]
<pre> </pre> <p>We provide the posterior distributions of the input parameters of the five main runs considered in the article "Bayesian inference of the dense matter equation of state built upon extended Skyrme interactions" (accepted to Phys. Rev. C, arXiv: 2403.19325).</p> <p>Each row in each file corresponds to one equation of state. It contains 13 input parameters of the extend Skyrme interaction that define the effective interaction and that can be used in order to construct equations of state. The input parameters (columns, from left to right) and their dimensions are: </p> <p>C_0 (MeV*fm^3); D_0 (MeV*fm^3); C_3 (MeV*fm^{3+3*sigma}); D_3 (MeV*fm^{3+3*sigma}); C_eff (MeV*fm^5); D_eff (MeV*fm^5); t_4 (MeV*fm^{5+3*beta}); t_5 (MeV*fm^{5+3*gamma}); x_4; x_5; sigma; beta; gamma.</p> <p>See the article for more details.</p>
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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.