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Fig. 3 in Effect of pH on the Early Development of the Biofouling Ascidian .
Fig. 3. The breakpoint pH, represented by the dotted line, varied throughout ontogeny. The breakpoint was identified by piecewise regression. Only five representative time points were presented (see Table 4 for the full regression statistics for all stages). The scale bars of the insets were 100 µm.
Fig. 2 in Effect of pH on the Early Development of the Biofouling Ascidian .
Fig. 2. Ocean acidification led to developmental delay in Ciona robusta. The mean and standard error for the proportion of embryo/larvae at a given stage relative to the total larval count at a particular time point were plotted. Note that 100% represents a different relative larval density for each bar (see Figure 1 for larval density).
Figure 4 in Addition of three Ascidian species to Indian waters from Andaman and Nicobar Islands
Figure 4. Microcosmus bitunicatus Monniot & Monniot, 2001. a. Preserved specimen. b. Double test. c. Dorsal tubercle. d. Branchial sac with folds. e. Gut loop and gonad in the body wall. f. Opening of gonad. (Abbreviation: DL: Dorsal Lamina, DT: Dorsal Tubercle, E: Endostyle, G: Gonad, GL: Gut loop, GO: Opening of Gonad, L: Liver, S: Stomach, T1: First Tunic/Outer tunic, T2: Second Tunic, each number is denoting each branchial fold), (Scale: c– 1mm; f– 5mm, 7.80x).
Figure 3. Cnemidocarpa hemprichi Hartmeyer, 1916 in Addition of three Ascidian species to Indian waters from Andaman and Nicobar Islands
Figure 3. Cnemidocarpa hemprichi Hartmeyer, 1916: a. Preserved specimen. b. Branchial sac with folds. c. branchial tentacles. d. Dorsal tubercle. e. Gut loop on the left side of the body along with gonad. f. Stomach. (Abbreviation: DL: Dorsal Lamina, DT: Dorsal Tubercle, E: Endostyle, EC: Endocarp, G: Gonad, S: Stomach, each number denoting each branchial fold), (Scale: b– 2mm, 9.08x; c– 1mm; d– 500μm, 42.7x; e– 2mm, 13.5x; f– 1mm, 27.2x).
Figure 2 in Addition of three Ascidian species to Indian waters from Andaman and Nicobar Islands
Figure 2. Polycarpa reniformis (Sluiter, 1904): a. Preserved specimen. b. Dorsal tubercle. c. Branchial sac with branchial folds. d. Stigmata. e. Gut loop on the left side of the body along with gonads. f. Gonads. (Abbreviation: DL: Dorsal Lamina, DT: Dorsal Tubercle, E: Endostyle, EC: Endocarp, G: Gonad, GL: Gut loop, ST: Stigmata, each number is denoting each branchial fold), (Scale: b– 1mm, 28.4x; c– 2mm, 11x; d– 500μm, 37.2x; e– 5mm, 7.80x; f– 1mm, 28x).
Figure 8. Culeolus suhmi Herdman, 1881 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 8. Culeolus suhmi Herdman, 1881. (A) Intact specimen (whole stalk not shown); (B) specimen opened along ventral mid line; branchial sac removed to show gut, gonads and muscles.
Figure 4 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 4. Polycarpa albatrossi (Van Name, 1912). (A) Specimen opened along ventral mid line; branchial sac removed; (B) gonad, top and lateral view; (C) gonad of another specimen.
Figure 9 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 9. Pyurella hernia Monniot and Monniot, 1973. (A) Specimen opened along ventral mid line; branchial sac removed; (B, C) details of the branchial sac; (D) branchial tentacles; (E) siphonal spines.
Figure 6 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 6. Styela calva Monniot, Monniot and Millar, 1976. Specimen opened along ventral mid line; branchial sac removed.
Figure 1. Corynascidia suhmi Herdman, 1882 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 1. Corynascidia suhmi Herdman, 1882. (A) Gut loop and inner surface of the atrial siphon; (B) anal margin; (C) body including top of the stalk removed from the test; (D) internal view of antero-dorsal mid line (branchial tentacles, prepharyngeal groove, dorsal tubercle and anterior part of dorsal lamina).
Figure 2 in Deep-water ascidians from the North Atlantic (RV Academic Keldysh, cruise 46 and 49)
Figure 2. Cnemidocarpa bythia (Herdman, 1881). Specimen opened along ventral mid line, branchial sac removed.
Figure 18 in Ascidians collected during the Spanish Antarctic expedition CIEMAR 99/00 in the Bransfield and Gerlache Straits
Figure 18. Bathypera splendens. (a) Right gonad; (b) left gonad in curve of gut. Dark structures are the testes.
Figure 7 in Ascidians collected during the Spanish Antarctic expedition CIEMAR 99/00 in the Bransfield and Gerlache Straits
Figure 7. Aplidium miripartum. (a) Zooid; (b) branchial sac with part of the membrane without stigmata; (c) larva.
Figure 1 in Ascidians collected during the Spanish Antarctic expedition CIEMAR 99/00 in the Bransfield and Gerlache Straits
Figure 1. Sampling stations in Bransfield Strait (those without ascidians in grey and marked with a square).
Figure 3 in Ascidians collected during the Spanish Antarctic expedition CIEMAR 99/00 in the Bransfield and Gerlache Straits
Figure 3. Aplidium cyaneum. (a) Open colony; the arrow shows the separation between abdomen and postabdomen (encircled); (b) zooid.
Figure 9 in Observations on non-didemnid ascidians from Australian waters (1)
Figure 9. In situ images of: (A) Pseudodistoma gracile (SAM E3270); (B) Pseudodistoma inflatum (SAM E3297); (C) Pseudodistoma pilatum (SAM E3296); (D) Polyclinum incrustatum (SAM E3274); (E) Polyclinum marsupiale (SAM E2866); (F) Aplidiopsis confluata (SAM E3281); (G) Aplidiopsis confluata (SAM E3282); (H) Synoicum citrum (SAM E3277).
Figure 10 in Observations on non-didemnid ascidians from Australian waters (1)
Figure 10. In situ images of: (A) Synoicum sacculum (SAM E2864); (B) Synoicum sacculum (SAM E3288); (C) Synoicum sphinctorum (SAM E3283); (D) Aplidium abditum (SAM E3268); (E) Aplidium brevilarvacium (SAM E3284); (F) Aplidium clivosum (SAM E3390); (G) Ascidia scaevola (SAM E2871); (H) Botryllus stewartensis (SAM E3289).
Figure 8 in Observations on non-didemnid ascidians from Australian waters (1)
Figure 8. In situ images of: (A) Pseudodiazona claviformis (SAM E3280); (B) Pycnoclavella tabella (SAM E3290); (C) Stomozoa australiensis (SAM E3285); (D) Sigillina exigua (SAM E3300, syntype); (E) Distaplia australiensis (SAM E3294); (F) Distaplia australiensis (SAM E3295); (G) Distaplia florida (SAM E3293); (H) Distaplia pallida (SAM E3273).
Figure 7 in Observations on non-didemnid ascidians from Australian waters (1)
Figure 7. (A–D) Ascidia saccula (holotype QM G308839): (A) external view showing pointed surface papillae around apertures; (B) body wall muscles; (C) internal view showing gut loop; (D) branchial tentacles, dorsal tubercle, neural ganglion, and dorsal lamina. (E) Ascidia thompsoni (QM G308827): internal view showing gut loop. Scale bars: 2 mm (A, D); 1 cm (B, C); 2 cm (E).
Figure 6 in Observations on non-didemnid ascidians from Australian waters (1)
Figure 6. (A–E) Aplidium formosum (holotype SAM E2899): (A) colony; (B) thorax, abdomen, and proximal part of posterior abdomen, showing ovary; (C) posterior abdomen showing male follicles; (D, E) larvae. (F, G) Aplidium laticum (syntype QM G308832): (F) thorax and abdomen; (G) posterior abdomen. Scale bars: 1 cm (A); 0.2 mm (B, C, F, G); 0.1 mm (D, E).
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
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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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.