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FIGURES 43–47 in Morphology, morphogenesis, and molecular phylogeny of a new brackish water ciliate, Pseudourostyla cristatoides n. sp., from Songjiho lagoon on the coast of East Sea, South Korea
FIGURES 43–47. Reorganization in Pseudourostyla cristatoides n. sp. after protargol impregnation. 43, 44. Ventral (43) and dorsal (44) view of middle reorganizer showing left marginal row anlagen (arrow in 43), dorsal kineties anlagen (arrow in 44), extrusomes (arrowhead in 44). 45–47. Ventral views of late reorganizers displaying migrating buccal cirrus (arrow in 45), migrating frontoterminal cirri (arrow in 46, 47). Scale bars: 100 μm.
FIGURES 19–23. Pseudourostyla cristatoides n in Morphology, morphogenesis, and molecular phylogeny of a new brackish water ciliate, Pseudourostyla cristatoides n. sp., from Songjiho lagoon on the coast of East Sea, South Korea
FIGURES 19–23. Pseudourostyla cristatoides n. sp., reorganizers after protargol impregnation. 19–21. Ventral and dorsal views of middle reorganizers, the marginal rows originate by common anlage (left, arrow; right, arrowhead), the dorsal kinety anlagen form intrakinetally, and asterisk marks posteriorly migrating buccal cirrus. 22, 23. Ventral and dorsal view of late reorganizer, showing the anteriorly migrating frontoterminal cirri (arrow). Scale bars: 100 μm.
FIGURES 15–18. Pseudourostyla cristatoides n in Morphology, morphogenesis, and molecular phylogeny of a new brackish water ciliate, Pseudourostyla cristatoides n. sp., from Songjiho lagoon on the coast of East Sea, South Korea
FIGURES 15–18. Pseudourostyla cristatoides n. sp., dividers after protargol impregnation. 15–18. Ventral and dorsal views of late dividers, the micronuclei are finished division and arrows denote anteriorly migrating frontoterminal cirri. Mi, micronuclei. Scale bars: 100 μm.
FIGURES 6–14. Pseudourostyla cristatoides n in Morphology, morphogenesis, and molecular phylogeny of a new brackish water ciliate, Pseudourostyla cristatoides n. sp., from Songjiho lagoon on the coast of East Sea, South Korea
FIGURES 6–14. Pseudourostyla cristatoides n. sp., dividers after protargol impregnation. 6, 7. Ventral view of early dividers, the buccal cirrus (arrowheads) is dedifferentiated, arrows mark basal body patches left of some postoral midventral cirri, and proter's oral primordium (asterisk) develops from a "pocket" of buccal cavity. 8. Ventral view of late early divider, showing forming adoral membranelles, fronto-ventral-transverse cirral (asterisks) and marginal cirral anlagen (left, arrows; right, arrowheads). The posterior cirri of rear corona participate in the fronto-ventral-transverse cirral anlagen. 9–12. Ventral and dorsal views of middle dividers, the leftmost frontal cirrus develops from the anterior end of undulating membranes and migrates posteriorly (asterisks), the dorsal kineties originate by intrakinetal formation (arrows), and the micronuclei are slightly inflated. 13, 14. Ventral and dorsal view of late divider, arrows denote anteriorly migrating frontoterminal cirri. Ma, macronucleus; Mi, micronucleus. Scale bars: 100 μm.
FIGURES 1–5 in Morphology, morphogenesis, and molecular phylogeny of a new brackish water ciliate, Pseudourostyla cristatoides n. sp., from Songjiho lagoon on the coast of East Sea, South Korea
FIGURES 1–5. Morphology of Pseudourostyla cristatoides n. sp., from life (1, 2) and after protargol impregnation (3–5). 1. Ventral view of a representative individual, arrows indicate contractile vacuoles. 2. Ventral views of the process of forming contractile vacuoles. 3–5. Ventral (3) and dorsal views (4, 5) of the holotype specimen, arrow denotes the anteriormost midventral pair. AZM, adoral zone of membranelles; BC, buccal cirrus; DK, dorsal kineties 1; EM, endoral membrane; FC, frontal cirri forming bicorona; FTC, frontoterminal cirri; LMR, outermost left marginal row; Ma, macronucleus; Mi, micronucleus; MP, midventral pair; PM, paroral membrane; RMR, outermost right marginal row; TC, transverse cirri. Scale bars: 100 μm.
FIGURE 6 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 6. Ocypode mortoni: ♂ from Sai Wan, carapace 24.5mm x 21.2 mm (CEL-Ocy-HK-003): a, dorsal view; b, frontal view.
FIGURE 2 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 2. Sai Wan, Hong Kong, the type locality of O. mortoni. a. Aerial photos showing the topography of the site, the streams in the southwest part and the location of the two transects T1 and T2. b. map of Sai Wan, redrawn from George (1982) indicating the distribution of Ocypode species. c. same location, aerial photo taken in Jan 2011, showing the construction sites in the northern flank of the site. Aerial photo, courtesy of Map Office, Lands Department, the Hong Kong SAR Government.
FIGURE 5 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 5. Life coloration of O. mortoni: a, dorsal view, adult; b, dorsal view, juvenile. c, frontal view, adult. Scale bars represent 1 cm.
FIGURE 4 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 4. Morphology of male first pleopod (G1) of O. mortoni: a, ventral view of left G1; b, tip of left G1, ventral view; c, dorsal view of right G1; d, G1 of type specimen, redrawn from George (1982).
FIGURE 3 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 3. Morphology of O. mortoni: a, dorsal surface of carapace; b, outer surface of major cheliped palm; c; inner surface of major cheliped palm, showing stridulating ridge; d, outer surface of minor cheliped; e, male abdomen; f, female abdomen; g, zygocardiac ossicle; h, urocardiac ossicle; i, inner surface of major cheliped palm of the type specimen, redrawn from George (1982).
FIGURE 9 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 9. Bayesian Inference (BI) tree showing phylogenetic relationships of East Asian Ocypode spp., based on COI gene. Additional support values of BI, maximum likelihood (ML) maximum parsimony (MP) analyses printed at the nodes. For details of haplotypes see Table 1, with species and localities behind. Black bars represent "ridge-bearing" species, and gray bars represent "ridge-less" species (see Discussion).
FIGURE 7 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 7. Density of O. mortoni and O. ceratophthalmus along T1 and T2 in Sai Wan (refer to Y-axis on left hand side); and the total number of crabs collected in the transects at Fan Lau and Bui O along the 30 meter-transects (refer to the Y axis on the right hand side).
FIGURE 1 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 1. Map of Hong Kong showing sandy shore study sites. Squares indicate the sites visited by George (1982) and circles indicate the sites visited in the present study. Closed circle / square indicates the presence of O. mortoni. Empty circle / square indicated absence of O. mortoni.
FIGURE 8 in The ghost crab Ocypode mortoni George, 1982 (Crustacea: Decapoda: Ocypodidae): redescription, distribution at its type locality, and the phylogeny of East Asian Ocypode species
FIGURE 8. Burrow morphology of Ocypode spp.: Burrow opening: a–b from Sai Wan (O. ceratophthalmus / O. mortoni were both found in these two types of burrows, see Discussion); c–d from Bui O (O. ceratophthalmus / O. mortoni were both found in these two types of burrows). Note the variation of arrangements of sediment piles around the opening; e, burrow opening of O. mortoni redrawn from George (1982). Scale bars represent 5 cm.
FIGURE 13–14. Xystopyge biacanthus n in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 13–14. Xystopyge biacanthus n.sp. 13: left gonopod coxa, anterior view. 14: right gonopod, apical view. Scales 0.5 mm.—amp: apical metaplical process, asl: apical solenomere lamella, lml: lateral metaplical lobe, lmp: lateral metaplical process, mf: metaplical flange, mmf: mesal metaplical flange, mmp: median metaplical process, pl: proplical lobe, st: anterior sternum, tp: telomere process.
FIGURE 12. Xystopyge proplicatus n in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 12. Xystopyge proplicatus n.sp., right gonopod, anterior view. Scale 1mm.—amp: apical metaplical process, ass2: apical solnomere spine 2, bss: basal solenomere spine, btl: basal telomere lamella, bts: spine of basal telomere lamella, dts: distal telomere spine, mmf: mesal metaplical flange, mmp: median metaplical process, mtl: medial telomere lamella, pp: proplica, st: anterior sternum.
FIGURE 8 in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 8. Xystopyge spp., solenomere apex (X. proplicatus: complete solenomere).—asl: apical solenomere lamella, ass: apical solenomere spine, bss: basal solenomere spine, msl: mesal solenomere lamella.
FIGURE 11. Xystopyge frontieri n in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 11. Xystopyge frontieri n.sp., left gonopod, anterior view. Scale 1 mm.—amp: apical metaplical process, bss: basal solenomere spine, lmp: lateral metaplical process, mmf: mesal metaplical flange, mmp: median metaplical process, pf: proplical flange, pl: proplical lobe, pml: posterior metaplical lobe, st: anterior sternum, ts1, ts2: telomeric spines.
FIGURE 9–10. Xystopyge pelecys n in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 9–10. Xystopyge pelecys n.sp., 9: left gonopod, anterior view. 10: left gonopod, apical view. Scales 0.5 mm.—al1, al2: apical lamellae of telomere, amp: apical metaplical process, btl: basal lamella on telomere, h: hook on telomere, lmp: lateral metaplical process, lms: lateral metaplical spine, mf: metaplical flange, mmf: mesal metaplical flange, mmp, median metaplical process, pl: proplical lobe, st: anterior sternum tp: axehead-like process on telomere.
FIGURE 15-16. Xystopyge zanzibarensis n in East African odontopygid millipedes 1: Five new species of Xystopyge (Attems, 1909) and a proposal for a new gonopod terminology (Diplopoda; Spirostreptida; Odontopygidae)
FIGURE 15-16. Xystopyge zanzibarensis n. sp. 15: left gonopod, apical view. 16: left gonopod, anterior view. Scales 0.5 mm. —amp: apical metaplical process, ass: apical solenomere spine, mmf: mesal metaplical flange, mmp: median metaplical process, pms: posterior metaplical spine, pp: proplica, st: anterior sternum, ts: telomere spine.
ScienceDex guides
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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.