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FIGURE 8 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 8. Latissimia opalia gen. nov. sp. nov. (A) Holotype (QM G339447) with expanded polyps emerging from the encrusting spreading membrane. (B–H) Paratype colonies.
FIGURE 1 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 1. Distribution map of the material examined in the current study. Color shades on the background represent different marine realms. TA = Tropical Atlantic, TSAM = Temperate Southern America, TSA = Temperate Southern Africa, WI-P = Western Indo-Pacific, CI-P = Central Indo-Pacific, and TAA = Temperate Australasia.
FIGURE 4 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 4. Sansibia flava (May, 1898) (SMNHTAU_Co_36007): (A) Ellipsoid platelets. (B) Tips of calcite rods providing a granular appearance to the sclerite surface.
FIGURE 6 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 6. Sansibia claereboudti sp. nov.: (A) Holotype (RMNH Coel. 42915). (B) Enlarged portion of (A) marked by dashed rectangle, arrows indicate clusters of polyps. (C) Paratype colonies (RMNH Coel. 42916) attached to calcareous substrate.
FIGURE 3 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 3. Scanning electron micrographs of sclerites of Sansibia flava (May, 1898). Holotype (ZMH C 2570): (A) Ellipsoid platelets. (B) Tips of calcite rods more or less perpendicular to the surface of the sclerite, giving it a granular appearance.
FIGURE 2 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 2. Sansibia flava (May, 1898): morphology of colonies. (A) Holotype (ZMH C 2570) comprises three fragments, one shown here. SMNHTAU_Co_36007: (B) Colony attached to calcareous substrate. (C) Magnified part of colony.
FIGURE 7 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 7. Scanning electron micrographs of sclerites of Sansibia claereboudti sp. nov. Holotype (RMNH Coel. 42915): (A) Ellipsoid platelets. (B) Tips of calcite rods provide uniform granular appearance to the sclerite surface.
Python Type Information
<p>Python type information of 1000 projects. </p>
supplementary file_Differences_in_Sports_Injury_Types_According_to_Taekwondo_Athlete_Types
<p>Supplementary_files(data table); Informed consent form for reseach project_legal agent; Certificate_of_editing</p>
Effectiveness of a multicomponent intervention consisting of education and feedback on reducing benzodiazepine prescriptions by general practitioners: BENZORED hybrid type I cluster randomized controlled trial.
<p>Complete dataset variables:</p> <p> </p> <p>GP_ID<br> Health_District<br> Health_District_name<br> PHC_ID<br> PHC_ID_name<br> Arm<br> DHD_Baseline<br> DHD_12m<br> PercentageBZD_baseline<br> PercentageBZD_12m<br> PercentageBZD_baseline_age65<br> PercentageBZD_12m_age65</p>
FIGURES 38–47 in Morphological variability of Alveolophora jouseana (Bacillariophyta) from type material
FIGURES 38–47. Original drawing of Melosira jouseanа Moisseeva (Moisseeva 1971, Table 1, figs 1–10). 38–43. Valve view. 44, 45. Ringleiste. 46, 47. Girdle view. Primorye, Lake Toni in the basin of the Samarga River, Kizi Formation of the Miocene.
FIGURES 26–37 in Morphological variability of Alveolophora jouseana (Bacillariophyta) from type material
FIGURES 26–37. SEM images of type material of Alveolophora jouseanа from the Miocene sediments of the Kizi strata (Lake Toni, Primorye, Far East, Russia). 26–37. Internal view of valves showing alveolae (alv), pseudoalveolae (p-alv), micropseudoalveolae (mpa), longitudinal costae (lc), transverse costae (tc), rimoportulae (arrows), rimoportulae chanels (r-ch) and Ringleiste (R). 37. Fragment of auxospora valve with micropseudoalveolae. Scale bars: 10 µm (Figs 27–29, 31–35, 37), 1 µm (Figs 26, 30, 36).
FIGURES 17–25 in Morphological variability of Alveolophora jouseana (Bacillariophyta) from type material
FIGURES 17–25. SEM images of type material of Alveolophora jouseanа from the Miocene sediments of the Kizi strata (Lake Toni, Primorye, Far East, Russia). 17–22. External valve face view showing areolae and granules. 23–25. Internal view of valves showing costae and Ringleiste. Scale bars: 10 µm.
FIGURES 1–7 in Morphological variability of Alveolophora jouseana (Bacillariophyta) from type material
FIGURES 1–7. LM images of type material of Alveolophora jouseanа from the Miocene sediments of the Kizi strata (Lake Toni, Primorye, Far East, Russia). 1–3. External view of valves showing areolae position. 4–6. External view of mantle. 7. External view of valves showing costae and Ringleiste. Scale bars: 10 µm.
FIGURES 8–16 in Morphological variability of Alveolophora jouseana (Bacillariophyta) from type material
FIGURES 8–16. SEM images of type material of Alveolophora jouseanа from the Miocene sediments of the Kizi strata (Lake Toni, Primorye, Far East, Russia). 8. General view of the sample. 9. Valves in external view showing variability of height and diameter. 11–14. Valves showing areolae rows and separating spines. 13. Valve with auxospora in girdle view showing areolae rows and external opening of rimoportulae (arrows). 10, 15–16. Valves in girdle view, showing linking spines, areolae rows and external opening of rimoportulae (arrows). Scale bars: 50 µm (Fig. 8), 10 µm (Figs 9–16).
Dataset for human PDI wild-type and variants labeled at positions 57/401, 88/401, 57/467, and 88/467 with Atto 550/647N
<p>PTU files (time-correlated single-photon counting data) of freely diffusing human oxidized and reduced PDI wild-type and variants labeled at positions 57/401, 88/401, 57/467, and 88/467 with Atto 550/647N. </p> <p> </p> <p> </p>
Recognition of discrete export signals in flagellar subunits during bacterial Type III secretion
<p><span>Type III Secretion Systems (T3SS) deliver subunits from the bacterial cytosol to nascent cell surface flagella. Early flagellar subunits that form the rod and hook substructures are unchaperoned and contain their own export signals. A gate recognition motif (GRM) docks them at the FlhBc component of the FlhAB-FliPQR export gate, but the gate must then be opened and subunits must be unfolded to pass through the flagellar channel. This induced us to seek further signals on the subunits. Here, we identify a second signal at the extreme N-terminus of flagellar rod and hook subunits and determine that key to the signal is its hydrophobicity. We show that the two export signal elements are recognised separately and sequentially, as the N-terminal signal is recognised by the flagellar export machinery only after subunits have docked at FlhB<sub>C</sub> </span><em><span>via</span></em><span> </span><span>the GRM. The position of the N-terminal hydrophobic signal in the subunit sequence relative to the GRM appeared to be important, as a FlgD deletion variant (FlgD<sub>short</sub>), in which the distance between the N-terminal signal and the GRM was shortened, 'stalled' at the export machinery and was not exported. The attenuation of motility caused by</span><span> FlgD</span><sub><span>short</span></sub><span> was suppressed by mutations that destabilised the closed conformation of the FlhAB-FliPQR export gate, suggesting that the hydrophobic N-terminal signal might trigger opening of the flagellar export gate.</span></p>
FIGURES 15–19. Pinnularia hustedtii F in Pinnularia hustedtii (Bacillariophyta): Notes on specimens from Wuling Mountains, China and from type material
FIGURES 15–19. Pinnularia hustedtii F.Meister, scanning electron microscope (SEM) images from Wuling Mountains material. 15–16. Entire valves with girdle attached in Fig. 15. 17–19. Internal detail of striae, raphe, helictoglossae and central nodule. Scale bars: 10 μm (Fig. 15), 20 μm (Fig. 16), 5 μm (Figs 17–19).
FIGURES 20–24. 20 in Pinnularia hustedtii (Bacillariophyta): Notes on specimens from Wuling Mountains, China and from type material
FIGURES 20–24. 20. Internal view of central nodule of raphe. 21–23. External views of striae, raphe, raphe endings at centre. 24. Detail of internal striae. Scale bars: 2 μm (Figs 20–23), 1 μm (Fig. 24).
FIGURES 9–14. Pinnularia hustedtii F in Pinnularia hustedtii (Bacillariophyta): Notes on specimens from Wuling Mountains, China and from type material
FIGURES 9–14. Pinnularia hustedtii F.Meister, light microscope (LM) images from Wuling Mountains material. Scale bar: 50 μm.
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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.