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Figure 1 in Report on Crassispirinae Morrison, 1966 (Mollusca: Neogastropoda: Turridae) from the China Seas
Figure 1. Species of subfamily Crassispirinae. (A) Aguilaria subochracea (SCS, CN 54–779); (B) lectotype (Taylor and Wells, 1994, as "Holotype") of Pleurotoma (Drillia) subochracea, BMNH 1988065, China Seas (probably); 38.8 × 12.3 mm; (C, D) Inquisitor incerta (SCS, CN 54–671); (E) syntype of Pleurotoma (Drillia) incerta, BMNH 1854.4.10.59, New Guinea; 25.0 × 7.9 mm; (F, G) Inquisitor plurivaricis (holotype, ECS, CN 553B–35, 114 m, 41.5 × 12.5 mm); (H) Inquisitor latifasciata (ECS, CN 57–658); (I) Inquisitor aesopus (Beibu Gulf, CN Q21B-22); (J) lectotype of Drillia aesopus, ZMAN (des. Kilburn, 1988), Kwandang Bay, west of entrance, north coast of Sulawesi, Indonesia, 72 m, fine sand with mud; 36.5 × 9.1 mm.
Figure 5 in Report on Crassispirinae Morrison, 1966 (Mollusca: Neogastropoda: Turridae) from the China Seas
Figure 5. Species of subfamily Crassispirinae. (A) Paradrillia sp. 1 (ECS, CN 0034-2); (B) Paradrillia sultana (ECS); (C) Paradrillia sp. 3 (Bohai Gulf); (D) Paradrillia sp. 2.(ECS).
FIGURES 6–9 in A report on Sipyloidea stigmata Redtenbacher (Diapheromeridae: Necrosciinae) as the first phasmid crop pest in India and its redescription
FIGURES 6–9. Sipyloidea stigmata, male: 6. head, lateral view; 7. mesonotum, dorsal view; 8. apex of abdomen, dorsal view; 9. apex of abdomen, lateral view.
FIGURES 3–5 in A report on Sipyloidea stigmata Redtenbacher (Diapheromeridae: Necrosciinae) as the first phasmid crop pest in India and its redescription
FIGURES 3–5. Sipyloidea stigmata, female: 3. mesonotum, dorsal view; 4. apex of abdomen, dorsal view; 5. apex of abdomen, lateral view.
FIGURES 1–7. Dicopus noyesi, slide mounted specimens. 1 in First report of three genera of fairyflies (Hymenoptera: Mymaridae) from India with description of a new species of Dicopus and some other records
FIGURES 1–7. Dicopus noyesi, slide mounted specimens. 1, head in frontal view; 2, female antenna; 3, female scape and pedicel; 4, apical funicular segments and clava of female; 5, male antenna; 6, fore wing; 7, hind wing.
FIGURE 6 in First report of kinorhynchs from Hokkaido, Japan, including a new species of Pycnophyes (Pycnophyidae: Homalorhagida)
FIGURE 6. Pycnophyes oshoroensis sp. nov., scanning electron micrographs. A. Overview of dorsal side. B. Neck and segments 1 and 2, lateral view. C. Segments 3–5, lateral view. D. Segments 8–10, dorsal view. E. Enlargement of lateral side of segment 9. Circles of dotted line indicate sensory spots. Abbreviations: amp, anterior middorsal projection; ldse, laterodorsal seta; lts, lateral terminal spine; pro, protonephridial pore; pdse, paradorsal seta; pl, placid; plse, paralateral seta; rc, reticulate cuticular area; seg, segment; vlse, ventrolateral seta. Digits after abbreviations refer to segment number.
FIGURE 2 in First report of kinorhynchs from Hokkaido, Japan, including a new species of Pycnophyes (Pycnophyidae: Homalorhagida)
FIGURE 2. Cephalorhyncha asiatica (Adrianov, 1989), male, ZIHU 3850, neck and trunk segments. A. Dorsal view. B. Ventral view.
FIGURE 10. Kinorhynchus yushini Adrianov, 1989 in First report of kinorhynchs from Hokkaido, Japan, including a new species of Pycnophyes (Pycnophyidae: Homalorhagida)
FIGURE 10. Kinorhynchus yushini Adrianov, 1989, female, ZIHU 3883, Nomarski photomicrographs. A. Overview, ventral side. B. Segments 1–4, dorsal view. C. Segments 1–4, ventral view. D. Segments 7–11, dorsal view. E. Segments 7–11, ventral view. Abbreviations: dae, dagger-like lateral element; esp, episternal plate; ldse, laterodorsal seta; mde, middorsal elevation; mdp, middorsal process; mlse, midlateral seta; msp, midsternal plate; tca, thin cuticle area.
FIGURE 5 in First report of kinorhynchs from Hokkaido, Japan, including a new species of Pycnophyes (Pycnophyidae: Homalorhagida)
FIGURE 5. Pycnophyes oshoroensis sp. nov., holotype, female, ZIHU 3872 A. Dorsal view. B. Ventral view.
FIGURE 4 in First report of kinorhynchs from Hokkaido, Japan, including a new species of Pycnophyes (Pycnophyidae: Homalorhagida)
FIGURE 4. Cephalorhyncha asiatica (Adrianov, 1989), male, ZIHU 3850, Nomarski photomicrographs. A. Dorsal view. B. Ventral view. C. Neck and segments 1–4, ventral view. D. Neck and segments 1–4, ventral view, more dorsally focused than C. E. Segmemts 5–11, ventral view. Abbreviations: las, lateral accessory spine; ldt, laterodorsal tubule; lts, lateral terminal spine; lva, lateroventral articulation; lvs, lateroventral spine; lvt, lateroventral tubule; mds, middorsal spine; mva, midventral articulation; mvp, midventral placid; pc, pachycyclus; ps1, penile spine 1; ps2, penile spine 2; vlt, ventrolateral tubule.
FIG. 6 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 6. Paraescarpia echinospica gen. nov., sp. nov., scanning electron micrographs: (A) opisthosoma (#3); (B) opisthosomal chaetae; (C) symbiotic bacteria in cells of the trophosome (arrow marks cell membrane); (D) spermatozoa in genital duct (# 1).
FIG. 4 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 4. Paraescarpia echinospica gen. nov., sp. nov.: (A) dorsal view of anterior end (#1) with complete spike, obturaculum and branchial plume: (B) tranverse section of spike (#4); (C) vertical section of crust: ep, epidermis of obturaculum (#4); (D) vertical section of anterior end (#4) showing left and right halves of obturaculum and broken spike: af, anterior Žlaments; co, collar; cr, crust; ep, epidermis of obturaculum; ex, excretory duct; pf, posterior Žlaments; sp, spike. Scales: (A, B, D) 5 mm; (C) 1 mm.
FIG. 5 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 5. Paraescarpia echinospica gen. nov., sp. nov. (#1): (A, B) tips of branchial Žlaments, smooth and pinnulate, respectively; (C) ventrolateral view of anterior vestimental region, showing collar folds and narrow anterior end of ventral ciliated band; (D) ventrolateral view of posterior vestimental region, showing mid-ventral split in posterior vestimental fold and wide posterior end of ventral ciliated band; (E) cuticular plaque from vestimental region; (F) cuticular plaque from trunk. Scales: (A, B) 100 Mm; (C, D) 5 mm; (E, F) 50 Mm.
FIG. 7 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 7. Paraescarpia echinospica gen. nov., sp. nov., schematic arrangement of the organs in the anterior vestimental region, lateral view; ap, anterior process of excretory organ; apv, aOEerent plume vessel; br, brain; dbv, dorsal blood vessel; ed, excretory duct; eo, excretory organ; ep, excretory pore; epv, eOEerent plume vessel; h, heart; obv, obturacular vessel; sv, sinus valvatus; vbv, ventral blood vessel.
FIG. 3 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 3. Paraescarpia echinospica gen. nov., sp. nov.: (A) young tube (#1) without funnel or collars; (B) tube (#2) with anterior funnel, subsequent collars, narrower mid-region and start of very narrow posterior region; (C) anterior end of animal from tube D, showing short spike, obturaculum, plume, vestimental folds and anterior trunk in dorsal view; (D) anterior region of tube (#4) with wide anterior funnel and several attached cirripedes, Neolepas sp. Scales: (A, B, D) 100 mm; (C)10 mm.
FIG. 2 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 2. Two sea-oor photographs taken at 'Mussel Scarp', showing anged Paraescarpia echinospica tubes projecting from muddy sediment. Note: the obturaculum and spike projecting from some tubes in lower photograph, stalked cirripedes attached to tubes, long thin tubes of unidentied polychaetes, oval empty shells of vesicomyid bivalves. X X, scale of 10 cm, indicated by two laser beams. Double shadows are produced by two lamps.
FIG. 1 in Vestimentiferans (Pogonophora) in the PaciŽc and Indian Oceans: a new genus from Lihir Island (Papua New Guinea) and the Java Trench, with the Žrst report of Arcovestia ivanovi from the North Fiji Basin
FIG. 1. The Bismarck Sea area and location of the Tabar-Feni Island Chain. Top right, detail of bathymetry around Lihir Island, Edison Seamount and Mussel Scarp. Depths in metres. Heavy lines, spreading centres; *sites of hydrothermalism.
Stroke risk, phenotypes, and death in COVID-19: systematic review and newly reported cases
Objectives: To investigate the hypothesis that strokes occurring in patients with COVID-19 have distinctive features, we investigated stroke risk, clinical phenotypes, and outcomes in this population. Methods: We performed a systematic search resulting in 10 studies reporting stroke frequency among COVID-19 patients, which were pooled with one unpublished series from Canada. We applied random-effects meta-analyses to estimate the proportion of stroke among COVID-19. We performed an additional systematic search for cases series of stroke in COVID-19 patients (n=125) and we pooled these data with 35 unpublished cases from Canada, USA, and Iran. We analyzed clinical characteristics and in-hospital mortality stratified into age groups (<50, 50-70, >70 years). We applied cluster analyses to identify specific clinical phenotypes and their relationship with death. Results: The proportion of COVID-19 patients with stroke (1.8%, 95%CI 0.9-3.7%) and in-hospital mortality (34.4%, 95%CI 27.2-42.4%) were exceedingly high. Mortality was 67% lower in patients <50 years-old relative to those >70 years-old (OR 0.33, 95%CI 0.12-0.94, P=0.039). Large vessel occlusion was twice as frequent (46.9%) as previously reported and was high across all age groups, even in the absence of risk factors or comorbidities. A clinical phenotype characterized by older age, a higher burden of comorbidities, and severe COVID-19 respiratory symptoms, was associated with the highest in-hospital mortality (58.6%) and a 3x higher risk of death than the rest of the cohort (OR 3.52, 95%CI 1.53-8.09, P=0.003). Conclusions: Stroke is frequent among COVID-19 patients and has devastating consequences across all ages. The interplay of older age, comorbidities and severity of COVID-19 respiratory symptoms is associated with an extremely elevated mortality.
FIGURE 1 in New localities of endangered Chinese turtles from museum specimens and the practical and ethical challenges using and reporting natural history collection data
FIGURE 1. Revised distribution of Platysternon megacephalum combining previously known localities (Iverson, 1992; Iverson et al., 2000) with records from the Institute of Zoology, China. Circles represent 41 previously reported localities, stars represent 11 new records.
FIGURE 2 in New localities of endangered Chinese turtles from museum specimens and the practical and ethical challenges using and reporting natural history collection data
FIGURE 2. Revised distribution of Sacalia bealei combining previously known localities (Iverson, 1992; Iverson et al., 2000) with records from the Institute of Zoology, China. Circles represent 6 previously reported localities, stars represent 5 new records.
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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.