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109 results for “Tuerkayana”
Fig. 1 in Tuerkayana rotundum
Fig. 1. DIC LM images of protogynes of Shevtchenkella serrata. A, empodium I. B, tarsal solenidion I. C, lateral view of opisthosoma. D, prodorsal shield. E, dorsal view of protogyne. F, dorsal view of male. G, ventral view of protogyne. Scale bars: A, B = 3 µm; C = 20 µm; D = 15 µm; E, F = 70 µm, G = 30 µm.
Fig. 2 in Fig. 12 in Tuerkayana rotundum
Fig. 2. Early development of F. ancora, as assessed microscopically and histologically. External and histological views of unfertilized eggs (A and A'), 16–32 cell stage (B and B'), prawnchip stage (C and C'), early blastula stage (D and D'), mid gastrula stage (E and E'), late gastrula stage (F and F'), planula at 64 hpf (G and G'), and planula at 128 hpf (H and H'). All scale bars = 100 μm.
Fig. 2 in Tuerkayana rotundum
Fig. 2. Maximum likelihood CO1 gene phylogeny of the genus Ophion based on bPTP MOTUs. Gray terminals indicate the apparently non-Ophion species although they have been deposited in the database as Ophion species. Ophion s. str. was collapsed (cf. Fig. S2 for whole tree). Pie charts on each node indicate a nodal support of SH-aLRT ≥ 0.80 and/or UFBoot2 ≥ 0.95. The Ophion minutus species-group and two well-recovered clades were represented as coloured clades. Ophion kobensis Shimizu sp. nov. was recovered as a sister to O. ventricosus. (SH-aLRT = 0.99 and UFBoot2 = 1.00).
Fig. 1 in Fig. 12 in Tuerkayana rotundum
Fig. 1. Fimbriaphyllia ancora spawning in an aquarium. A: A female colony releasing pinkish eggs. B: Picture of the aquarium with spawning F. ancora. Note the released eggs floating at the surface (arrows).
Fig. 8 in Tuerkayana rotundum
Fig. 8. Locations (arrows) of overwintered females of Shevtchenkella serrata collected on 18 April 2021 (A, B) and on 16 May 2021 (C, D, E) from seedlings (A, B, C) and saplings (D, E) of Acer platanoides from North-West Russia.
Fig. 3 in Tuerkayana rotundum
Fig. 3. DIC LM images of deutogyne of Shevtchenkella serrata. A, prodorsal shield; B, empodium I; C, tarsal solenidion I; D, dorsal view of entire mite; E, ventral view of entire mite; F, G, H, gnathosoma shown in three different planes from dorsal (F) to ventral (H). White arrows in Fig. 3. F, G, H indicate putative suboral fork. Scale bars: A = 15 µm; B, C = 10 µm; D, E = 60 µm; F, G, H = 5 µm.
Fig. 4 in Fig. 12 in Tuerkayana rotundum
Fig. 4. Settlement of F. ancora planulae on different substrates. A: Results of settlement assay. Microscope slide (glass), crustose coralline algae, coral debris, or ceramic tile was added to plastic culture dishes (9 cm) filled with 30 mL of FSW. Then, 20 planulae (at 64–128 hpf) were added to each dish and maintained for 6 days. A dish with 30 mL of FSW, but no substrate was used as a control. The number of larvae settled on each dish surface or substrate was determined at 6 days of culture. Experiments were performed three times using planulae collected from different colonies. Data are shown as means ± SEs (n = 3 experiments). Groups with different letters are statistically different (p <0.05). B: Micrograph of larvae settled on coral debris. C: Micrograph after metamorphosis.
Fig. 1 in Tuerkayana rotundum
Fig. 1. Result of the bPTP molecular species delimitation test of Ophion kobensis Shimizu sp. nov. among the genus Ophion, based on the maximum likelihood CO1 gene topology reconstructed by IQ-TREE2. This figure only shows the O. minutus species-group but whole result is available at figure S1. Stripes indicate delimited molecular operational taxonomic units (MOTUs), and stripe colours and numbers on them indicate a degree of the Bayesian supports of posterior probabilities (PP) to delimited species. Pie charts on each node indicate nodal support of SH-aLRT ≥ 0.80 and/or UFBoot2 ≥ 0.95. Ophion kobensis Shimizu sp. nov. was recovered as a single MOTU (PP = 0.866).
Fig. 6 in Tuerkayana rotundum
Fig. 6. Drawings of deutogyne (A–H, J–L) and protogyne (I, M–T) of Brevulacus reticulatus. A–C, prodorsal shield ornamentation. D, internal genitalia (deutogyne). E, coxigenital area. F, dorsal view of entire deutogyne. G and H, legs I & II. I, empodium I (protogyne). J, empodium I (deutogyne). K and L, tarsal solenidia II & I (deutogyne). M–T, terminal (M) and lateral (N–T, from distal to proximal) empodial rays (protogyne). Scale bars: A–D = 15 µm; E = 30 µm; F = 60 µm; G, H = 10 µm; I–L = 5 µm; M–T = 2 µm.
Fig. 5 in Tuerkayana rotundum
Fig. 5. DIC microphotographs of protogyne of Brevulacus reticulatus Manson 1984. A, dorsal view of body. B, ventral view of body. C, prodorsal shield. D, genital area (arrow indicates pregenital plate). Note: setae sc in live mites are directed anteriad (Fig. 5A), in contrast to many slide-mounted mites with artifact backward directed sc (Fig. 5C). Scale bars: A, B = 40 µm; C, D = 15 µm.
Fig. 4 in Tuerkayana rotundum
Fig. 4. Detailed photographs of Ophion kobensis Shimizu sp. nov. (a) head, frontal view; (b) head, lateral view; (c) head, dorsal view; (d) mesosoma, lateral view; (e) mesoscutum and scutellum, dorsal view; (f) mesosoma, dorso-lateral view; (g) metasoma, lateral view.
Fig. 2 in Tuerkayana rotundum
Fig. 2. Drawings of deutogyne of Shevtchenkella serrata. A, dorsal view of body. B, leg II. C, leg I. D, empodium I. E, tarsal solenidion I. F, internal genitalia. G, prodorsal shield. H, coxigenital area. Scale bars: A, H = 25 µm; B, C, D, E, F = 10 µm; G = 15 µm.
Fig. 5 in Tuerkayana rotundum
Fig. 5. Reconstructed consensus tree of Patellogastropoda using Bayesian inference, based on 472 bp of the mitochondrial COI gene. Node values indicate Bayesian posterior probabilities, only values> 0.6 are shown. GenBank accession numbers of the sequences are indicated in parentheses the species names.
Fig. 2 in Tuerkayana rotundum
Fig. 2. Paralepetopsis polita sp. nov.. A: Holotype (TMBC031004). B: Paratype 1 (NSMT Mo-79367). C: Paratype 2 (NSMT Mo-79368). D: Paratype 3 (NSMT Mo-79369). Scale bars = 2 mm.
Fig. 1 in Tuerkayana rotundum
Fig. 1. The Haima methane seep in the South China Sea. A: Map showing the location of Haima seep southeast off Hainan Island. B: Photograph of the type locality showing Paralepetopsis polita sp. nov. (arrows) on the shells of the vesicomyid clam Archivesica marissinica.
Fig. 4 in Tuerkayana rotundum
Fig. 4. Paralepetopsis polita sp. nov. (paratype 1, NSMT Mo-79367), external anatomy. Left: dorsal view after removing the shell, right: ventral view. Abbreviations: a, anus; dg, digestive gland; f, foot; gr, groove separating the foot's sole from peripheral flange; i, intestine; ll, labial lappet; m, mouth; me, mantle edge; ol, outer lip of the mouth; pc, pericardium; r, rectum; rk, right kidney; s, stomach; sm, shell muscles; sp, sensory papillae; t, cephalic tentacle; te, testis; up, urinogenital papilla.
Fig. 3 in Tuerkayana rotundum
Fig. 3. Paralepetopsis polita sp. nov., scanning electron micrographs of paratype 4 (TMBC031005). A: Apex with arrows indicating the region lost by corrosion. B: Shell surface. C–D: Radula. Scale bars: A = 200 μm, B: 1 mm, C–D = 50 μm.
Fig. 3 in Tuerkayana rotundum
Fig. 3. Cluster analysis of skull measurements of Mazama simplicicornis argentina (MSA) (Lönnberg 1919) compared with Subulo gouazoubira, Mazama nemorivaga, Mazama americana and Mazama rufa; star = collected adult male topotype; arrow = adult female holotype.
Fig. 4 in Tuerkayana rotundum
Fig. 4. Karyotype of a male topotype of Mazama simplicicornis argentina (MSA) (Lönnberg 1919) collected in the Chaco Province of Argentina. From left to the right: chromosomes under C-banding, G-banding and ideogram of Subulo gouazoubira (SGO) showing correspondence to MSA chromosomes (adapted from Bernegossi et al. 2022). The NOR positions are marked with asterisks. FISH results using BAC probes derived from BTA1 and BTAX are presented on the right of the SGO4.
Fig. 6. Mismatch distribution for X. formosensis determined using Arlequin 3.5.2.2 in Tuerkayana rotundum
Fig. 6. Mismatch distribution for X. formosensis determined using Arlequin 3.5.2.2 and based on mitochondrial DNA cytochrome oxidase subunit I (COI) data. Blue-colored bars represent the observed frequency and the red-colored curve represents the expected frequencies under a sudden expansion model.
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