Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
169
datasets available to search
ShareScore release 0.9.0
Dataset results
169 results for “Epibiont”
FIG. 6 in Epibiontic mollusc communities on Pinna nobilis L. (Bivalvia, Mollusca)
FIG. 6. Trophic structure of the epibiontic mollusc community in each P. nobilis size class. Sh, suspension feeder herbivores; Gh, grazer herbivores; O, omnivores; C, carnivores; P, parasites.
FIG. 7 in Epibiontic mollusc communities on Pinna nobilis L. (Bivalvia, Mollusca)
FIG. 7. Biocenotic composition of epibiontic mollusc community (entire sample). lre, species with a wide ecological distribution; sspr, species without a clearly deŽned ecological role; AP, exclusive or predominant species in the photophilic algae biocenosis; AP-HP, predominant species in both photophilic algae and Posidonia meadow biocoenoses; SFBC/SVMC, exclusive or predominant species in Žne well-sorted sands, together with muddy sands in sheltered areas biocoenoses; SGCF, exclusive or predominant species in coarse sands and Žne gravel with bottom currents; DC, exclusive or predominant species in coastal detritic biocoenoses.
FIG. 8 in Epibiontic mollusc communities on Pinna nobilis L. (Bivalvia, Mollusca)
FIG. 8. Biocenotic composition of epibiontic mollusc community (for each size classes). lre, species with a wide ecological distribution; sspr, species without a clearly deŽned ecological role; AP, exclusive or predominant species in the photophilic algae biocenosis; AP-HP, predominant species in both photophilic algae and Posidonia meadow biocoenoses; SFBC/SVMC, exclusive or predominant species in Žne well-sorted sands, together with muddy sands in sheltered areas biocoenoses; SGCF, exclusive or predominant species in coarse sands and Žne gravel with bottom currents; DC, exclusive or predominant species in coastal detritic biocoenoses.
FIGURES 1–7. 1 in Suctorian ciliates (Ciliophora, Suctorea) as epibionts of stream-dwelling aquatic beetles (Coleoptera) and water mites (Acari: Hydrachnidia) in the southwestern Palaearctic region
FIGURES 1–7. 1 = Setodiscophrya deplanata (Matthes, 1954), from Hydraena sp. (× 640); 2 = Discophrya helmidis Matthes, 1954, from Hydraena sp. (× 640); 3 = Elatodiscophrya hochi (Matthes, 1954), from Hydraena sp. (× 640); 4 = Periacineta buckei (Kent, 1881), from Hydraena sp. (× 640); 5 = Discophrya lichtensteinii (Claparede & Lachmann, 1859), from Torrenticola barsica (× 640); 6 = Acineta sp. from Torrenticola barsica (× 640); 7 = Acineta persiensis Dovgal & Pešić, 2007, from Protzia sp. (× 640).
FIGURE 6. A, B in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 6. A, B. Drawing of Cothurnia buetschlii (specimen 2) ventrally on segment 10 of Setaphyes kielensis (ZMB 12486) as longitudinal optical section (A) and lorica in cross-section (B). Abbreviations: an, annulation on surface of zooid; en, endostyle with striae; inf, withdrawn infundibulum with cilia; lo, lorica; ma, macronucleus; mi, micronucleus; po, pore in cementing mass; sc, spherical cavity; st, stalk with internal striae; zo, zooid. Scale bar 30 µm.
FIGURE 4 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 4. Setaphyes kielensis (A, ZMB 12469; B, ZMB 12489; C, ZMB 12486; D, E, ZMB 12492; F, ZMB 12488) with specimens of Trematosoma husselae sp. nov., SEM (A), and DIC (B–F). A. Segment 1, empty shells of epibionts, ventral view. B. Segments 1–11, optical section. C. Epibionts with capitated tentacles arranged in left and right row. Extended focus image of three images. D. Epibiont with developing swarmer. Arrowheads mark membrane of swarmer. E. Epibiont with swarmer recently freed from its parent. F. Segments 4–6, ventral view. Note thickened lorica in basal two thirds of epibionts. Arrow marks longitudinal striation of stalk of epibiont. Abbreviations: ca, basal cavity in lorica; co, specimen of Cothurnia buetschlii; lo, lorica; lts, lateral terminal spine; ma, macronucleus; mi, micronucleus; s, segment, followed by segment number; su, suctorian epibiont; sw, swarmer; te, tentacle. Scale bar in A, D, E 20 µm, in B 100 µm, in C 30 µm, and in F 50 µm.
FIGURE 8 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 8. Setaphyes kielensis (A, ZMB 12468; B, ZMB 12474) with epibionts, SEM. A. Segment 6, left side. Arrow marks laterally recessed anterior margin of lorica of Cothurnia buetschlii. B. Segments 8–10, dorsal view. Abbreviations: co, Cothurnia buetschlii; fp, filamentous prokaryotes; s, segment, followed by segment number; su, suctorian epibiont; te, tentacles. Scale bar in A 10 µm and in B 20 µm.
FIGURE 3 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 3. Setaphyes kielensis (A–C, ZMB 12475; D, ZMB 12464; E, F, ZMB 12465; G, ZMB 12462) with specimens of Trematosoma husselae sp. nov., SEM, ventral view. A–C. Specimen with 43 epibionts, segments 1–4 (A), 5–7 (B), and 8–11 (C). D. Segment 8, epibiont surface. E. Segment 6, epibiont surface covered with detritus. F. Segment 8, frontal view on small spherical specimen of Trematosoma husselae sp. nov. G. Segment 10, arrow marks specimen with withdrawn tentacles. Abbreviations: gco, gland cell outlet; lts, lateral terminal spine; s, segment, followed by segment number; se, seta; su, suctorian epibiont; te, tentacle. Scale bar in A–C 40 µm, in D–F 10 µm, and in G 20 µm.
FIGURE 10 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 10. Setaphyes kielensis (A–C, ZMB 12458; D, ZMB 12488) with cuticular marks and filamentous prokaryotes, SEM (A–C) and DIC (D). A. Cuticular marks (arrows) of detached ciliate specimens, laterodorsal view. B. Segment 1 with large mucous? attachment sites to basibiont (arrows), frontal view. C. Segments 7–11, ventral view. D. Segments 8–10, ventral view. Abbreviations: co, Cothurnia buetschlii; fp, filamentous prokaryotes; lts, lateral terminal spine; pl, placid; s, segment, followed by segment number; su, suctorian epibiont. Scale bar in A–C 20 µm and in D 50 µm.
FIGURE 1 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 1. Map showing the locations of Pycnophyes communis, Setaphyes dentatus, and S. kielensis in European waters and the sampling site of S. dentatus and S. kielensis in the North Sea, island of Sylt (asterisks in inset A).
FIGURE 9 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 9. Setaphyes kielensis (ZMB 12486), segment 10 with Cothurnia buetschlii (specimens 1–4), ventral view. A. Overview of position of epibionts. Numbers indicate specimens of C. buetschlii (comp. also Table 6). B–G. Specimens 3 (B) and 4 (C–G), images 8 (C), 15 (D), 19 (E), 24 (F) and 28 (G) showing surface annulation of zooid (C, D), internal longitudinal striae of stalk and endostyle (D–F), and attachment site of stalk to the cuticle of the basibiont (G, arrowheads). Note elongate macronucleus and numerous micronuclei (E–G). White arrows (D, E) mark basal outer margin of lorica, black arrows (D, E) point to bottom margin of lorica. Abbreviations: an, annulation on surface of zooid; ci, ciliae; en, endostyle; in, withdrawn infundibulum; lo, lorica; lts, lateral terminal spine; ma, macronucleus; mi, micronucleus; ps, penile spine; sc, spherical cavity; st, stalk; su, suctorian epibiont; zo, zooid. Scale bar in A 50 µm and in D 20 µm, valid for B–G.
FIGURE 7 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 7. Setaphyes kielensis (ZMB 12468) with epibionts, SEM. A. Segments 1–11, ventral-right. B. Segments 4–8, ventral view. Arrows mark laterally recessed anterior margin of lorica of Cothurnia buetschlii. Abbreviations: co, Cothurnia buetschlii; fp, filamentous prokaryotes; lts, lateral terminal spine; s, segment, followed by segment number; se, seta; su, suctorian epibiont; tu, tube. Scale bar in A 100 µm and in B 20 µm.
FIGURE 2 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 2. Trematosoma husselae sp. nov. on Setaphyes kielensis. A. Drawing of the holotype with internal developing swarmer ventrally on segment 1 of basibiont (ZMB 12499). B. Paratype in side view ventrally on segment 3 of basibiont (ZMB 12489). Arrow marks apical cleft within lorica. Abbreviations: ca, basal cavity in lorica; lo, lorica; ma, macronucleus; mi, micronucleus; st, stalk with internal striation (information taken from different specimen); sw, swarmer; te, tentacle; zo, zooid. Scale bar 30 µm.
FIGURE 5 in Epibiontic life on intertidal Setaphyes kielensis and S. dentatus (Kinorhyncha, Pycnophyidae) from Sylt, North Sea, Germany, with a description of a new species of Trematosoma (Ciliophora, Acinetidae) and a redescription of Cothurnia buetschlii (Ciliophora, Vaginicolidae)
FIGURE 5. Setaphyes kielensis (A, ZMB 12489; B, ZMB 12500; C, ZMB 12499; D, ZMB 12487; J, ZMB 12486; L, ZMB 12397; M, ZMB 12369) and S. dentatus (E–G, K, ZMB 12503; F, H, I, ZMB 12494) with specimens of Trematosoma husselae sp. nov. (A–G, J–M), Cothurnia buetschlii (J), and a case of fungus or developmental artefact (H, I, ZMB 12494), DIC. A. Segments 1–4, lateral and dorso-ventral view on the calyciform, dorso-ventrally compressed lorica with the zooid, ventrolateral view on basibiont. B. Epibiont with swarmer, stalk, and lorica in optical section. C. Epibiont with two macronuclei not fusing at any focal level. D, E. Young, small, spherical epibionts with few tentacles, not all tentacles in focus. F. Young specimen on cuticle of basibiont with striation pattern on surface (arrows). G. Epibiont with tentacles in empty shell of suctorian epibiont. H, I. Segment 10, dorsally (H) and optical section (I), subcuticular fungus or internal sclerotisation artefact of the cuticle (arrows). J. Assemblage of epibionts on segment 10 of basibiont with C. buetschlii (contracted specimen left, extended specimen right), T. husselae sp. nov., and two kinds of filamentous bacteria. Arrows mark endostyle. K. Suctorian on segment 7 of S. dentatus. L, M. Specimens collected 1998, showing cellular substructures (L) and withdrawn zooid with minimum amount of cellular substructures (M). Extended focus images of six (D), eight (H, L), and three (K) images. Arrowheads mark stalks in B, D, E, G, and J. Abbreviations: ba, bacteria; ca, basal cavity in lorica; co, C. buetschlii; en, endostyle; lo, lorica; ma, macronucleus; s, segment, followed by segment number; sc, spherical cavity; sp, sperm; st, stalk; su, suctorian epibiont; sw, swarmer; te, tentacle; tu, tube on segment 2. Scale bar in A 50 µm, in B 20 µm, valid for B, G–J and M, in C 20 µm, valid for C, K, and L, and in D–F 10 µm.
Data from: Bacterial epibiont communities of panmictic Antarctic krill are spatially structured
Open the record for dataset details and reuse information.
Data from: Ontogenetic variation in epibiont community structure in the deep-sea yeti crab, Kiwa puravida: convergence among crustaceans
Open the record for dataset details and reuse information.
Dataset of biofouling epibionts on microalgae compiled from literature and environmental variables from open access databases
Open the record for dataset details and reuse information.
Global sea turtle epibiont database
Open the record for dataset details and reuse information.
FIGURE 2 in Loricophrya bosporica n. sp. (Ciliophora, Suctorea) epibiont of Desmoscolex minutus (Nematoda, Desmoscolecida) from oxic / anoxic boundary of the Black Sea Istanbul Strait's outlet area
FIGURE 2. Schematic drawing of Loricophrya bosporica sp. nov. Scale bar: 20 µm.
TABLE 1 in Report of deep-sea epibiont ciliates (Ciliophora) from more than 1000 m depth of the Arabian Sea, Indian Ocean
<p><b>TABLE 1.</b> Geographical and ecological information of the study areas</p><table><tbody><tr><th>Station ID</th><th>Latitude (°N)</th><th>Longitude (°E)</th><th>Sediment depth (core)</th><th>Collection Depth (m)</th><th>Bottom temperature (°C)</th><th>Bottom pH</th><th>Bottom Salinity (psu)</th><th>Bottom DO (ml/L)</th><th>Sediment texture pattern</th></tr></tbody><tbody><tr><th>MUC-13</th><td>20° 58’ 45.0732’’</td><td>68° 53’ 18.258’’</td><td>0–2 cm</td><td>1495</td><td>5.4</td><td>7.62</td><td>35.0</td><td>0.72</td><td>Clayey silt</td></tr><tr><th>MUC-16</th><td>19° 0’ 0.486’’</td><td>64° 0’ 14.1192’’</td><td>0–2 cm</td><td>3463</td><td>1.7</td><td>7.86</td><td>34.8</td><td>1.95</td><td>Silty sand</td></tr><tr><th>MUC-17</th><td>15° 0’ 1.1772’’</td><td>64° 0’ 1.1802’’</td><td>0–2 cm</td><td>3918</td><td>1.7</td><td>7.82</td><td>34.7</td><td>2.7</td><td>Silty sand</td></tr><tr><th>MUC-18</th><td>13° 0’ 13.6728’’</td><td>64° 0’ 9.8316’’</td><td>0–2 cm; 2–4 cm</td><td>4119</td><td>1.7</td><td>7.90</td><td>34.7</td><td>2.8</td><td>Sandy silt</td></tr><tr><th>MUC-20</th><td>15° 0’ 2.5776’’</td><td>72° 0’ 18.8388’’</td><td>0–2 cm</td><td>2054</td><td>2.9</td><td>7.68</td><td>34.7</td><td>2.50</td><td>Clayey silt</td></tr></tbody></table>
ScienceDex guides
Understand access before you commit
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.