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4,937 results for “Endemic species”
FIGURE 3 in First record of the interaction between the arthropod-pathogenic fungus Gibellula and a new species of harvestman Auranus (Stygnidae) narrowly endemic to the Brazilian rain forest
FIGURE 3. Distribution map of Auranus quilombola sp. nov. and other Auranus species. A) Records of A. quilombola sp. nov. in Brejos de Altitude of Ceará state. Black dots are the known records, red arrow is the location of observation of fungusharvestmen interaction, full line is the Brejos Cearenses area of endemism delimitation. B) Distribution of Auranus species in the Amazon forest according Colmenares et al. (2016) and the new species in Atlantic forest. In detail, South America with the two great blocks of rain forest, Amazonian and Atlantic forest, showing the geographic locations of A and B.
FIGURE 2 in First record of the interaction between the arthropod-pathogenic fungus Gibellula and a new species of harvestman Auranus (Stygnidae) narrowly endemic to the Brazilian rain forest
FIGURE 2. Penis of Auranus quilombola sp. nov. (Holotype, UFPB OP-901), dorsal view on the left, lateral view at the center, and ventral view on the right. Details of macrosetae are shown with colors. Scale = 0.25 mm.
FIGURE 1. Begonia diegoi Jara. A in Five new species and three new varieties of Begonia section Casparya endemic to Colombia
FIGURE 1. Begonia diegoi Jara. A) Branch, B) Young inflorescence, C) Inflorescence with staminate flowers open, D) Inmature fruit. Based on A. Jara & D. Yepes 2849, by O. Bernal.
FIGURE 3. Begonia kalbreyeri var. orquidensis. A in Five new species and three new varieties of Begonia section Casparya endemic to Colombia
FIGURE 3. Begonia kalbreyeri var. orquidensis. A) Branch, B) Outer series of the perianth in the staminate flower, C) Inner series of the perianth in the staminate flower, D) Pistillate flower from above, E) Pistillate flower in side view, without part of the outer series of the perianth. Based on A. Gentry 24640, and J. Betancur 5969, by O. Bernal.
FIGURE 2. Begonia galeanoi Jara. A in Five new species and three new varieties of Begonia section Casparya endemic to Colombia
FIGURE 2. Begonia galeanoi Jara. A) Branch, B) Leaf from above, C) Staminate flower seen from above, D) Pistillate flower, E) Anther, F) Cross section of the fruit, G) Fruit from below, H) Fruit from above. Based on A. Jara 2729, by O. Bernal.
FIGURE 8. Begonia vinagrera var. vinagrera. A in Five new species and three new varieties of Begonia section Casparya endemic to Colombia
FIGURE 8. Begonia vinagrera var. vinagrera. A) Branch with flowers, B) Staminate flower, C) Pistillate flower showing perianth, ovary, and bracteoles, D) Fruit. Based on J. Betancur 5805, J.L. Fernandez-Alonso 6250, and pictures of live plants, by O. Bernal.
FIGURE 5 in Five new species and three new varieties of Begonia section Casparya endemic to Colombia
FIGURE 5. Distribution of Begonia diegoi, Begonia galenoi, Begonia kalbreyeri var. oquidensis, and Begonia mamapachensis.
FIGURE 19 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 19. Maximum likelihood (ML) tree for concatenated mtMutS, COI and 28S rDNA gene regions (1981 bp). Clades of Xeniidae genera other than Sympodium have been collapsed to facilitate readability. Black circles: ML bootstrap value (b.s.)>70%, Bayesian posterior probability (p.p)>0.95; gray circles: b.s.>70%, p.p. <0.95. Dashed vertical line indicates specimens of S. arbusculum sp. n. from Madagascar that belonged to a distinct MOTU in some analyses.
FIGURE 17 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 17. Sympodium yonaguniensis sp. n.: morphology of type material colonies. (A) Holotype (SMNHTAU_Co_35117) featuring irregular upper surface with some polyps emerging individually and others in groups; almost all are retracted. (B) Paratype colonies (SMNHTAU_Co_38228); five shown here. (C) Paratype (SMNHTAU_Co_35754) comprises small colonies growing on turf algae and a sponge. (D) Higher magnification of the paratype showing partly retracted polyps of colonies.
FIGURE 14 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 14. Live colonies of Sympodium species on the reef. (A) Colonies of S. subtilis sp. n. with expanded polyps. (B, C) Colonies of S. vegrandis sp. n. (D, E) Colonies of S. yonaguniensis sp. n.
FIGURE 13 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 13. Scanning electron micrographs of sclerites of Sympodium subtilis sp. n. Syntypes (SMNHTAU_Co_38204): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
FIGURE 12 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 12. Sympodium subtilis sp. n.: morphology of type material colonies. (A) Syntypes (SMNHTAU_Co_38204) encrusting colonies with delicate membrane growing on a bivalve shell. (B) Higher magnification of portion of syntypes showing both expanded and retracted polyps on spreading membrane.
FIGURE 10 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 10. Sympodium hexagonotus sp. n.: morphology of type material colonies. (A) Holotype (QM G330076) featuring mounds with mostly retracted polyps. (B) Paratype fragments (QM G339750).
FIGURE 9 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 9. Scanning electron micrographs of sclerites of Sympodium gibbaeum sp. n. Holotype (SMNHTAU_Co_36121): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface, some of the tips are oblique. Paratype (SMNHTAU_Co_36032): (C) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface, some of the tips are oblique or parallel to the surface.
FIGURE 8 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 8. Sympodium gibbaeum sp. n.: morphology of type material colonies. (A) Holotype (SMNHTAU_Co_36121) featuring densely packed knob-like mounds with polyps retracted on top of mounds and partially expanded between them. (B) Paratype colonies (SMNHTAU_Co_38227) with expanded and retracted polyps on top of mounds. (C) Paratype (SMNHTAU_ Co_36032) is an encrusting membranous colony with individual separated polyps and with some low mounds bearing polyps. (D) Higher magnification of part of the paratype (SMNHTAU_Co_36032) showing polyp location on both the encrusting membrane and the low mounds.
FIGURE 4. Sympodium caeruleum Ehrenberg, 1834 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 4. Sympodium caeruleum Ehrenberg, 1834. Syntypes (ZMB 240): (A) Colonies attached to a calcareous substrate. (B) View of expanded and retracted polyps.
FIGURE 7 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 7. Scanning electron micrographs of sclerites of Sympodium epiphytum sp. n.: Syntypes (SMNHTAU_Co_36010): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface. Paratype (SMNHTAU_ Co_35977): (C) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
FIGURE 2 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 2. Scanning electron micrographs of sclerites of Sympodium arbusculum sp. n. Holotype (SMNHTAU_Co_36017): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface. Paratype (SMNHTAU_Co_36015): (C) Ellipsoid platelets. (D) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
FIGURE 5 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 5. Scanning electron micrographs of sclerites of Sympodium caeruleum Ehrenberg, 1834. Syntypes (ZMB 240): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
FIGURE 18 in Overview of the genus Sympodium Ehrenberg, 1834 (Octocorallia, Alcyonacea, Xeniidae), with the description of new species, revealing regional endemism
FIGURE 18. Scanning electron micrographs of sclerites of Sympodium yonaguniensis sp. n. holotype (SMNHTAU_Co_ 35117): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface. Paratype (SMNHTAU_Co_35754): (C) Ellipsoid platelets. (D) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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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.