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3,655 results for “Structural data”
FIGURES 127–131 in World genera of Mastigitae: review of morphological structures and new ecological data (Coleoptera: Staphylinidae: Scydmaeninae)
FIGURES 127–131. Leptochromini, morphological structures, Leptochromus laselva. Head in dorsolateral (127–128) and ventral (129) views; prothorax in ventral view (130); prothorax and elytral base in lateral view (131). Abbreviations: bstr, basisternal part of prosternum; cx1, procoxa; fm1, profemur; gp, gular plate; hcl, humeral callus; hr, hypostomal ridge; lp, labial palp; md, mandible; mn, mentum; mxp1–4, maxillary palpomere I–IV; pd, pedicel; pgp, postgenal (= subocular) process; pm, prementum; prcl, procoxal collar; ptp, posterior tentorial pit; sc, scape; scl2, mesoscutellum; smn, submentum; tr1, protrochanter.
FIGURES 94–98 in World genera of Mastigitae: review of morphological structures and new ecological data (Coleoptera: Staphylinidae: Scydmaeninae)
FIGURES 94–98. Clidicini, morphological structures, Clidicus bellator. Mouthparts in ventral view (94); left scape and pedicel in ventral view (95); prothorax in ventral view (96); pterothorax and first visible abdominal sternite in ventral view (97); aedeagus and sperm pump (98). Abbreviations: acxc, adcoxal carina; ade, adcoxal expansion; aed, aedeagus; aest3, metanepisternum; ar, anterior ridge; bst, basistipes; bstr, basisternal part of prosternum; cd, cardo; dej, ductus ejaculatorius; epm2, mesepimeron; gal, galea; lac, lacinia; lhl, lateral hypopharyngeal lobe; lp1–3, labial palpomere I–III; mn, mentum; mst, mediostipes; msvp, mesoventral intercoxal process; mtvp, metaventral intercoxal process; pd, pedicel; pm, prementum; ppf, palpifer; pre, prepectus; sc, scape; si, setose impression; spp, sperm pump; st3, abdominal sternite III; v3, metaventrite.
FIGURE 18 in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 18. Melithaea sp. axial internodes: A–B, developing tip with associated closeup; C, surface of older internode; D, longitudinal section featuring central core and terminal latticework; E, longitudinal section through part of young internode almost wholly consisting of core structure.
FIGURE 11. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 11. Asperaxis karenae n. gen., n. sp., holotype: A, axial sclerites; B, points and collaret arrangement.
FIGURE 4. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 4. Asperaxis karenae n. gen., n. sp., holotype, decalcified twig crosssections: A, intern ode region, showing mesogloeal remnants; B, partially decalcified section through internode region showing axis and longitudinal canals; C, nodal region with closeup showing gorgonin remnants.
FIGURE 7. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 7. Asperaxis karenae n. gen., n. sp., holotype: A–B, C–D, cavities left by dissolved partial nodes; E, branching node.
FIGURE 6. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 6. Asperaxis karenae n. gen., n. sp., developing axis: A–E, holotype; A, from distal portion of twig; B, closeup of region near tip; C–E, closeups of older portions, with D showing cavity remaining from a dissolved partial node; F, paratype SAM H1398, axis tip.
FIGURE 10. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 10. Asperaxis karenae n. gen., n. sp., holotype: A, polyp and calyx; B, side view of cleared tentacle, insc = intermediate sclerites, pisc = pinnule scales; C, tentacle tip showing nematocyst bands; D, tentacle tip showing position of pinnule scales.
FIGURE 17 in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 17. Acabaria sp. axial internodes: A–C, tip of internode with indicated closeups; D–F, crosssection of internode showing cental core, and serial closeups showing sections through embedded sclerites.
FIGURE 13. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 13. Asperaxis karenae n. gen., n. sp., holotype, anthocodial sclerites: A, points; B, pharynx.
FIGURE 2. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 2. Asperaxis karenae n. gen., n. sp., holotype: A, colony; B, polyps clustered on twig tip; C, light photograph of decorticated axis fragment.
FIGURE 16 in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 16. Acabaria sp. axis: A, decorticated nodeinternode articulation; B–C, serial closeups of internode surface; D, closeup of nodal sclerite network showing sclerites with peeling gorgonin sheaths; E, closeup of internodenode boundary region showing the edge of the underlying fused latticework.
FIGURE 9. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 9. Asperaxis karenae n. gen., n. sp., holotype: A, partially embedded internodal surface sclerites; B, complete internode; CD, internode crosssection with closeup featuring the central core; EF, internode crosssection featuring sections through embedded sclerites.
FIGURE 5. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 5. Asperaxis karenae n. gen., n. sp., holotype, axis: A, longitudinal section through internode fragment; B, closeup of calcite matrix on internode surface; C, close up of calcite matrix from internode interior.
FIGURE 8. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 8. Asperaxis karenae n. gen., n. sp., paratypes: A–B, SAM H1400, cross section through node with closeup of nodal sclerites with gorgonin sheaths; C, NTM C14987, longitudinal section through a node showing nodal sclerites held within sheathing gorgonin.
FIGURE 20 in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 20. Subergorgia suberosa axis: A, anastomosed surface sclerites; B–C, longitudinal section with closeup of central region featuring free sclerites.
FIGURE 3. Asperaxis karenae n. gen., n in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 3. Asperaxis karenae n. gen., n. sp., holotype, axis: A, internodes and nodes; B, closeup of a whole node; C, close up of a partial node; D, close up of part of an internode.
FIGURE 19 in New subfamilies and a new genus and species of Melithaeidae (Coelenterata: Octocorallia: Alcyonacea) with comparative data on the structure of both melithaeid and subergorgiid axes
FIGURE 19. Annella reticulata axis: A, anastomosed surface sclerites; B–C, longitudinal section with closeup of central region featuring free sclerites.
The ouput simulation data of the Exo-FMS GCM and of the post-processing with gCMCRT for Effects of the internal temperature on vertical mixing and on cloud structures in Ultra Hot Jupiters
<p>The datasets contains the ouput simulation data of the Exo-FMS GCM and of the post-processing with gCMCRT for Effects of the internal temperature on vertical mixing and on cloud structures in Ultra Hot Jupiters</p> <p>Context. The vertical mixing in hot Jupiter atmospheres plays a critical role in the formation and spacial distribution of cloud particles<br>in their atmospheres. This affects the observed spectra of a planet through cloud opacity, which can be influenced by the degree of<br>cold trapping of refractory species in the deep atmosphere.<br>Aims. We aim to isolate the effects of the internal temperature on the mixing efficiency in the atmospheres of Ultra Hot Jupiters (UHJ)<br>and the spacial distribution of cloud particles across the globe.<br>Methods. We couple a simplified tracer based cloud model, picket fence radiative-transfer scheme and mixing length theory to the<br>Exo-FMS general circulation model. We run the model for five different internal temperatures at typical UHJ atmosphere system<br>parameters.<br>Results. Our results show the convective eddy diffusion coefficient remains low throughout the vast majority of the atmosphere, with<br>mixing dominated by advective flows. However, some regions can show convective mixing in the upper atmosphere for colder interior<br>temperatures. The vertical extent of the clouds is reduced as the internal temperature is increased. Additionally, a global cloud layer<br>gets formed below the radiative-convective boundary (RCB) in the cooler cases.<br>Conclusions. Convection is generally strongly inhibited in UHJ atmospheres above the RCB due to their strong irradiation. Convective<br>mixing plays a minor role in keeping cloud particles aloft in ultra hot Jupiters with warm interiors. Our results suggest isolated upper<br>atmosphere regions above cold interiors may exhibit strong convective mixing, allowing aerosols to be better retained in these areas.</p>
Protein structure data for "AI-predicted protein deformation encodes energy landscape perturbation"
<p>AF2-predicted protein structures of WT and mutant proteins that have corresponding ddG measurements in the ThermoMutDB database of protein mutant stability measurements. PDB structures are compressed using <a href="https://github.com/steineggerlab/foldcomp/">FoldComp</a>, and saved in "structures.zip".</p> <p>Summary of the final dataset and results can be found in "results_summary.pkl".</p> <p>Code used to plot figures can be found in "code4figs.zip".</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.