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Fig. 4 in Two New Species of Metapocyrtus Heller 1912 (Coleoptera: Curculionidae: Entiminae: Pachyrhynchini) from Davao de Oro Mindanao Island, Philippines
Fig. 4. Male genitalia and female terminalia of Metapocyrtus salesi sp. nov. A: penis in lateral view; B: idem in dorsal view; C: sternite IX in dorsal view; D: sternite VIII in ventral view; E: spermatheca; F: ovipositor in dorsal view
Fig. 3 in Free-living Heterotrophic Flagellates Lakes in Turkey (Protista) from Two Hypersaline
Fig. 3. (a) Ancyromonas sigmoides, (b) Caecitellus parvulus, (c) Cafeteria roenbergensis, (d) Cantina marsupialis, (e) Chelonemonas sp., (f) Codosiga botrytis, (g) Carpediemonas membranifera, (h) Neobodo curvifilus, (i) Neobodo designis, (j) Neobodo saliens, (k) unidentified protist, (l)-(m) Pleurostomum flabellatum, (n) Rhyncomonas nasuta, (o) Monosiga brevicollis, (p) Salpingoeca marina, (q) Pendulomonas adriperis, (r) Halocafeteria seosinensis. All micrographs are DIC images. Scale bar in (k) represents for all figures.
Fig. 2 in Free-living Heterotrophic Flagellates Lakes in Turkey (Protista) from Two Hypersaline
Fig. 2. (a) Ancyromonas sigmoides, (b) Neobodo curvifilus, (c) Chelonemonas sp., (d) Carpediemonas membranifera, (e) Caecitellus parvulus, (f) Codosiga botrytis, (g) Cafeteria roenbergensis, (h) Pleurostomum flabellatum, (i) Rhynchomonas nasuta, (j) Salpingoeca marina, (k) Pendulomonas adriperis, (l) Neobodo saliens, (m) unidentified protist, (n) Neobodo designis, (o) Monosiga brevicollis, (p) Halocafeteria seosinensis, (q) Cantina marsupialis.
Fig. 2. A in Molecular Characterization of Two Myxosporean Species, Henneguya namae Haldar et al. 1983 and Myxobolus sophorae Jayasri, 1982 (Myxosporea: Myxobolidae)
Fig. 2. A schematic drawing of Henneguya namae and Myxobolus sophorae myxospores found infect Chanda nama and Puntius sophore. In frontal view: A – H. namae, C – M. sophorae. In sutural view: B – H. namae, D – M. sophorae. Scale bars (A–D) 10 µm.
Fig. 1 in Morphology of Two Eschaneustyla Species (Ciliophora, Urostylida), with Notes on Morphogenesis of Eschaneustyla lugeri
Fig. 1. Eschaneustyla terricola (A, B) and E. lugeri (C–E) during interphase, and E. lugeri during morphogenesis (F–L), after protargol impregnation. (A, B) Ventral and dorsal view of same specimen, showing ciliature. Cirri formed from same anlage were connected by solid line. Asterisk denotes the distal end of AZM. (C) Schematic representations of midventral-complex of four E. lugeri specimens with two long midventral rows. Arrows and arrowheads denote midventral rows 1 and 2, respectively. (D, E) Ventral and dorsal view of same specimen, showing typical infraciliature. Cirri formed from same anlage were connected by solid line. Two leftmost cirri develop from anterior part of undulating membranes anlage (dotted line). (F) Ventral view of an early divider that twisted a little at the anterior end, to show the oral primordia of proter (arrow) and opisthe (arrowhead). (G) Enlarged image of proter's oral primordium (arrow) and undulating membranes anlage (arrowhead) of the individual shown F. Note that the former develops in deep of the cortex while the latter develops in the surface. (H) Ventral view of an early divider to show the frontoventral cirral anlagen (arrows). Arrowhead denotes the penultimate frontoventral cirral anlage which forms midventral row 1. Double-arrowhead denotes the frontoventral cirral anlage n that develops into frontoterminal row. Dashed circle represents the flurry area due to the hyperchromatism after protargol impregnation. (I, J) Ventral and dorsal view of an early divider to show the frontoventral cirral anlagen. Arrows and arrowheads in I mark the penultimate and the last frontoventral cirral anlagen, respectively. Note that marginal anlagen and dorsal kineties anlagen (arrows in J) develop intrakinetally. Macronuclear nodules are fusing (arrowheads in J). (K) Ventral view of a middle divider. Arrow marks the partly renewed adoral zone of membranelles of proter. Asterisk denotes two leftmost frontal cirri developed from the undulating membranes anlage. L. Nuclear apparatus of the same specimen as shown in K. Note that macronuclear nodules are fusing into a single mass. AZM, adoral zone of membranelles; CC, caudal cirri; E, endoral; FT, frontoterminal row; LMA, left marginal anlage; LMR, left marginal row; Ma, macronuclear nodules; Mi, micronuclei; MV, midventral row; MV 1, midventral row 1; 1–4, dorsal kineties 1–4; P, paroral; RMA, right marginal anlage; RMR, right marginal row. Scale bars: 100 μm (A, B, D, E); 70 μm (F–L).
Fig. 1 in Molecular Characterization of Two Myxosporean Species, Henneguya namae Haldar et al. 1983 and Myxobolus sophorae Jayasri, 1982 (Myxosporea: Myxobolidae)
Fig. 1. Photographs of myxobolids: A – Cysts of H. namae of different sizes between gill filaments of the host fish show by arrows, B – Spores released from ruptured cysts of H. namae, C – H. namae frontal view, D – H. namae sutural view, E – M. sophorae frontal view, F – M. sophorae sutural view. Scale bars (A) 300 µm, (B) 50 µm, (C–F) 10 µm.
Figure 7 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 7: Effect of temperature on the relative abundance of different ontogenetic stages during gametogenesis of Laminaria digitata (left) and Hedophyllum nigripes (right) in a temperature gradient after seven days (above) and 14 days (below; mean of n = 3–4; SD not shown for clarity). Only the most developed stage was counted per female gametophyte. †All gametophytes died.
Figure 6 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 6: Sex ratio (female:male) of gametophytes of Laminaria digitata (left) and Hedophyllum nigripes (right) after 14 days in temperature gradients between 0 and 25 °C (L. digitata) and 22 °C (H. nigripes) (n = 4, mean ± SD). Different letters denote significant differences among temperatures within each species (L. digitata: Kruskal–Wallis test with multiple p-value comparison; H. nigripes: one-way ANOVA with Tukey's post hoc test). Please note that the marked deviation from an expected initial 50:50 ratio was due to applied seeding methods. †All gametophytes died.
Figure 4 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 4: Optimal quantum yield (FV/FM) of Laminaria digitata (top) and Hedophyllum nigripes (bottom) sporophytes in a temperature gradient (two weeks; left graph) and post-cultivation at 10 °C (one week; right graph). Horizontal lines represent the median; boxes, the interquartile range; whiskers, 1.5× of inter-quartile range (n = 5).
Figure 3 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 3: Photographic documentation of Laminaria digitata and Hedophyllum nigripes sporophytes exposed to a temperature gradient after post-cultivation at 10 °C. Images are not to scale. Triangular cuts marked individual sporophytes per replicate.
Figure 2 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 2: Relative growth rates (RGR; % d−1) of Laminaria digitata (top) and Hedophyllum nigripes (bottom) sporophytes in a temperature gradient over the experimental time (14 days; left side of the dotted line) and recovery at 10 °C (one week; right side of the dotted line; n = 5, mean ± SD). Each value denotes the RGR between the indicated time point and the measuring day before.
Figure 1 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 1: Standardized growth rates (GR) based on surface area (%) of Laminaria digitata (white dots) and Hedophyllum nigripes (black dots) sporophytes over two weeks in a temperature gradient (n = 5, mean ± SD). Different letters denote significant differences within each species (ANOVA with Tukey's post hoc test: α <0.05, A– D = L. digitata; a–c = H. nigripes). Asterisks indicate significant differences between standardized GR of L. digitata and H. nigripes (two-way ANOVA with Tukey's post hoc test).
Figure 5 in Looks can be deceiving: contrasting temperature characteristics of two morphologically similar kelp species co-occurring in the Arctic
Figure 5: Density of gametophytes of Laminaria digitata (A, C) and Hedophyllum nigripes (B, D) at day 7 (A, B) and day 14 (C, D) in temperature gradients between 0 and 25 °C (L. digitata) and 22 °C (H. nigripes) (n = 3–4, mean ± SD). Broken horizontal lines show the mean initial gametophyte density for each species after the acclimatization phase (day 0). †All gametophytes died.
FIG. 6 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 6. Molecular phylogenetic hypothesis of the family Onchidorididae, Bayesian Inference, concatenated dataset of three markers (COI + 16S + H3), species-level clades and genera are collapsed to a single branch, except the genus Adalaria. Asterisk indicates a clade containing type species of the genus Adalaria. Numbers above branches indicate posterior probabilities from Bayesian Inference (values higher than 0.9 are shown), numbers below branches – bootstrap support from Maximum Likelihood (in %, values higher than 60% are shown). РИС. 6. МолекулЯрно-филогенетическое дерево длЯ семейства Onchidorididae, основании комбинированного датасета (COI + 16S + H3) при помоЩи байесовского аналиЗа, клады видового уровнЯ сколлапсированы, кроме клад иЗучаемых видов с о. Сахалин. ЗвеЗдочкой обоЗначена клада с типовым видом рода Adalaria. ЗначениЯ над ветвЯми обоЗначают апостериорные вероЯтности (покаЗаны ЗначениЯ более 0.9). ЗначениЯ под ветвЯми обоЗначают поддерЖки бутстрепа (в %, покаЗаны ЗначениЯ более 60%).
FIG. 5 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 5. Radular morphology of Adalaria boussoleana sp. nov., holotype MIMB48047 (SEM). A. Median and anterior radular portion. B. Lateral and inner marginal teeth. C, D. Rachidian teeth. E. Lateral and marginal teeth, posterior radular portion. F. Marginal teeth. Scale bars: A = 100 µm; B, E = 50 µm; C, D, F = 20 µm. РИС. 5. МорфологиЯ радулы Adalaria boussoleana sp. nov., голотип MIMB48047 (СЭМ). A. СреднЯЯ и переднЯЯ часть радулы. B. Латеральные и внутренние маргинальные Зубы. C, D. Центральные Зубы. E. Латеральные и маргинальные Зубы, ЗаднЯЯ часть радулы. F. Маргинальные Зубы. Масштабные линейки: A = 100 µm; B, E = 50 µm; C, D, F = 20 µm.
FIG. 4 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 4. External morphology and spicular complex of Adalaria boussoleana sp. nov, holotype MIMB48047. A. Living specimen, dorsal view. B. Living specimen, lateral view from right. C, D, E. Spicular complex, (C) dorsal view, (D) ventral view, (E) lateral view. F. Spicules of ctenidia. G. Spicules of rhinophore in the front part of the body, lateral view. H. Spicules of the stellular tract at the tubercle base, front part of the body. H. Monoaxone spicules. J. Diaxone spicules. K. Multiaxone spicules. Abbreviation: sc = spicules of ctenidia; sf = spicules of foot; sne = spicules of notum edge; srh = spicules of rhinophore; srht = spicules of tubercles on rhinophoral sheath; sst = spicule of stellular tract. Photo credits: A, B. Anastassya Maiorova.
FIG. 2 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 2. Reproductive system morphology of Cadlina spp. from Aniva Bay and Adalaria boussoleana sp. nov. from the Sea of Okhotsk. A. Cadlina umiushi, MIMB48042. B. Cadlina sp., MIMB48045. C. Adalaria boussoleana sp. nov. MIMB48047. Abbreviations: am = ampulla; bc = bursa copulatrix; fgm = female gland mass; p = penis; pr = prostate; psh = penial sheath; pvd = prostatic vas deferens; rs = receptaculum seminis; va = vagina; vd = vas deferens. Scale bars: A, B = 1 mm; C = 5 mm. РИС. 2. ПоловаЯ система Cadlina spp. иЗ Залива Анива и Adalaria boussoleana sp. nov. иЗ Охотского морЯ. A. Cadlina umiushi, MIMB48042. B. Cadlina sp., MIMB48045. C. Adalaria boussoleana sp. nov. MIMB48047. СокраЩениЯ: am = ампулла; bc = копулЯтивнаЯ сумка; fgm = комплекс Женских ЖелеЗ; p = пенис; pr = простата; psh = сумка пениса; pvd – простатическаЯ часть семЯпровода, rs – семЯприемник; va – вагина; vd – семЯпровод. Масштабные линейки: A, B = 1 мм; C = 5 мм.
FIG. 1 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 1. External and internal morphology of Cadlina spp. from Aniva Bay. A. Cadlina sp. MIMB48044. B. Cadlina sp., MIMB48045. C. Cadlina umiushi, MIMB48042. D. Cadlina umiushi, MIMB48043. E. Cadlina umiushi, MIMB48042, in natural environment. F. Cadlina sp., MIMB48045, labial cuticle rodlets. G. Cadlina sp., MIMB48045, radula. H. Cadlina umiushi, MIMB48043, labial cuticle rodlets. I. Cadlina umiushi, MIMB48043, radula. K, N, O. Cadlina sp., MIMB48045, anterior radular portion, details of teeth morphology. L, M, P. Cadlina umiushi, MIMB48043, anterior radular portion, details of teeth morphology. Scale bars: F, H, N = 20 µm; G, I = 250 µm; K = 100 µm; L = 10 µm; M, O, P = 50 µm. Photo credits: A – D. Anton Plaksin; E. Alexander Semenov. РИС. 1. ВнешнЯЯ и внутреннЯЯ морфологиЯ Cadlina spp. иЗ Залива Анива. A. Cadlina sp. MIMB48044. B. Cadlina sp., MIMB48045. C. Cadlina umiushi, MIMB48042. D. Cadlina umiushi, MIMB48043. E. Cadlina umiushi, MIMB48042 в естественной среде. F. Cadlina sp., MIMB48045, родлеты лабиальной кутикулы. G. Cadlina sp., MIMB48045, радула. H. Cadlina umiushi, MIMB48043, родлеты лабиальной кутикулы. I. Cadlina umiushi, MIMB48043, радула. K, N, O. Cadlina sp., MIMB48045, переднЯЯ часть радулы, детали морфологии Зубов. L, M, P. Cadlina umiushi, MIMB48043, переднЯЯ часть радулы, детали морфологии Зубов. Масштабные линейки: F, H, N = 20 µm; G, I = 250 µm; K = 100 µm; L = 10 µm; M, O, P = 50 µm. Авторство фотографий: A – D. Антон Плаксин; E. Александр Семенов.
FIG. 10 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 10. Molecular phylogenetic hypothesis of genus Cuthonella, Maximum Likelihood, concatenated dataset of three markers (COI + 16S + H3), species-level clades and outgroups are collapsed to a single branch, except target species from Sakhalin Is. and Cuthonella osyoro. For Cuthonella anastasia sp. nov. only 16S and H3 data were available for analysis. Numbers above branches indicate posterior probabilities from Bayesian Inference (values higher than 0.9 are shown), numbers below branches – bootstrap support from Maximum Likelihood (in %, values higher than 60% are shown). РИС. 10. МолекулЯрно-филогенетическое дерево длЯ рода Cuthonella, построенное на основании комбинированного датасета при помоЩи метода максимального правдоподобиЯ (COI + 16S + H3), клады видового уровнЯ сколлапсированы, кроме клад иЗучаемых видов с о. Сахалин. ДлЯ Cuthonella anastasia sp. nov. только данные по маркерам 16S и H3 были доступны длЯ аналиЗа. ЗначениЯ над ветвЯми обоЗначают апостериорные вероЯтности (покаЗаны ЗначениЯ более 0.9). ЗначениЯ под ветвЯми обоЗначают поддерЖки бутстрепа (в %, покаЗаны ЗначениЯ более 60%).
FIG. 3 in Nudibranch molluscs of Sakhalin Island, Northwestern Pacific: new records and descriptions of two new species
FIG. 3. Molecular phylogenetic hypothesis of genus Cadlina, Maximum Likelihood, concatenated dataset of three markers (COI + 16S + H3), species-level clades and outgroups are collapsed to a single branch, except target species from Sakhalin Is. Numbers above branches indicate posterior probabilities from Bayesian Inference (values higher than 0.9 are shown), numbers below branches – bootstrap support from Maximum Likelihood (in %, values higher than 60% are shown). РИС. 3. МолекулЯрно-филогенетическое дерево длЯ рода Cadlina, построенное на основании комбинированного датасета при помоЩи метода максимального правдоподобиЯ (COI + 16S + H3), клады видового уровнЯ сколлапсированы, кроме клад иЗучаемых видов с о. Сахалин. ЗначениЯ над ветвЯми обоЗначают апостериорные вероЯтности (покаЗаны ЗначениЯ более 0.9). ЗначениЯ под ветвЯми обоЗначают поддерЖки бутстрепа (в %, покаЗаны ЗначениЯ более 70%).
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.