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167 results for “Xeniidae”
FIGURE 15 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 15. Live colonies of Latissimia ningalooensis gen. nov. sp. nov.: (A–B) Colonies from western Australia exhibiting mixed blue-brown coloration. (C–D) Encrusting colonies invasive to Brazil with their expanded polyps displaying mixed bluebrown color. Photos C–D courtesy of Joel C. Creed (Universidade do Estado do Rio de Janeiro).
FIGURE 13 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 13. Colonies of Latissimia ningalooensis gen. nov. sp. nov., invasive to Brazil, featuring a spreading membrane and non-retractile polyps: (A) SMNHTAU_Co_38205. (B) SMNHTAU_Co_38206.
FIGURE 16 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 16. Quattuoria pallida gen. nov. sp. nov. Holotype (SMNHTAU_Co_36071): (A) Encrusting colony attached to a calcareous fragment. (B) Magnified portion of holotype showing expanded polyps.
FIGURE 11 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 11. Latissimia ningalooensis gen. nov. sp. nov.: (A) Holotype (QM G330711) top and side view showing expanded polyps emerging from the encrusting spreading membrane. (B, C) Paratype colonies (QM G339754, and QM G339755).
FIGURE 10 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 10. Live colonies of Latissimia opalia gen. nov. sp. nov.: (A, B) View of encrusting colonies. (C, D) Polyps exhibiting characteristic blue coloration of sclerites with creamy brown color of underlying tissue containing symbiotic algal cells. (E, F) Magnified tentacles with pinnules exhibiting the above coloration features.
FIGURE 9 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 9. Scanning electron micrographs of sclerites of Latissimia opalia gen. nov. sp. nov. Holotype (QM G339447): (A) Ellipsoid platelets. (B) Tips of calcite rods provide a uniform granular appearance to the sclerite surface.
FIGURE 5 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 5. Live colonies of Sansibia species. S. flava (May, 1898) on the reef: (A) Colony with expanded brown polyps and bright, almost white polyp body. (B) Colony with expanded polyps. S. claereboudti sp. nov.: (C, D) Encrusting colonies with expanded polyps and distinct pinnules along the margins of the tentacles (photos C, D: courtesy of M. Claereboudt).
FIGURE 8 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 8. Latissimia opalia gen. nov. sp. nov. (A) Holotype (QM G339447) with expanded polyps emerging from the encrusting spreading membrane. (B–H) Paratype colonies.
FIGURE 1 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 1. Distribution map of the material examined in the current study. Color shades on the background represent different marine realms. TA = Tropical Atlantic, TSAM = Temperate Southern America, TSA = Temperate Southern Africa, WI-P = Western Indo-Pacific, CI-P = Central Indo-Pacific, and TAA = Temperate Australasia.
FIGURE 4 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 4. Sansibia flava (May, 1898) (SMNHTAU_Co_36007): (A) Ellipsoid platelets. (B) Tips of calcite rods providing a granular appearance to the sclerite surface.
FIGURE 6 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 6. Sansibia claereboudti sp. nov.: (A) Holotype (RMNH Coel. 42915). (B) Enlarged portion of (A) marked by dashed rectangle, arrows indicate clusters of polyps. (C) Paratype colonies (RMNH Coel. 42916) attached to calcareous substrate.
FIGURE 3 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 3. Scanning electron micrographs of sclerites of Sansibia flava (May, 1898). Holotype (ZMH C 2570): (A) Ellipsoid platelets. (B) Tips of calcite rods more or less perpendicular to the surface of the sclerite, giving it a granular appearance.
FIGURE 2 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 2. Sansibia flava (May, 1898): morphology of colonies. (A) Holotype (ZMH C 2570) comprises three fragments, one shown here. SMNHTAU_Co_36007: (B) Colony attached to calcareous substrate. (C) Magnified part of colony.
FIGURE 7 in On some encrusting Xeniidae (Octocorallia): Re-examination of the type material of Sansibia flava (May, 1898) and a description of new taxa
FIGURE 7. Scanning electron micrographs of sclerites of Sansibia claereboudti sp. nov. Holotype (RMNH Coel. 42915): (A) Ellipsoid platelets. (B) Tips of calcite rods provide uniform granular appearance to the sclerite surface.
FIGURE 9 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 9. Scanning electron micrographs of platelets of Sympodium omasum sp. nov., paratype KBF-OA-00084 A. ellipsoid platelets B. hexagonal platelets C. double-heads. Scale bar: 10 μm.
FIGURE 7 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 7. Scanning electron micrographs of platelets of Sympodium omasum sp. nov., paratype KBF-OA-00082 (MUFSCOTUK16 in Koido et al. 2019) A. ellipsoid platelets B. hexagonal platelets C. double-heads. Scale bar: 10 μm.
FIGURE 3 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 3. Tentacles of Sympodium omasum sp. nov. aboral (left) and oral sides (right) A. A schema of the holotype KBF-OA-00081 (MUFS-COTUG2 in Koido et al. 2019). B. Stereoscopic microscopes images of holotype KBF-OA-00081. C. Paratype KBF-OA-00082 (MUFS-COTUK16 in Koido et al. 2019). D. Paratype KBF-OA-00083 (MUFS-COMO63 in Koido et al. 2019). E. Paratype KBF-OA-00084. Scale bar: 0.5 mm.
FIGURE 6 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 6. Scanning electron micrographs of the surface of sclerites of Sympodium omasum sp. nov. A–C, E–G, I, J. holotype KBF-OA-00081(MUFS-COTUG2 in Koido et al. 2019) D, H. paratype KBF-OA-00082 (MUFS-COTUK16 in Koido et al. 2019) A–D. surface of platelets E. broken platelets F. close-up view of a broken platelets G–H. surface of double-headed I. broken double-headed J. close-up view of a broken double-headed. Scale bar: 1 μm.
FIGURE 4 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 4. Light microscope images of sclerites in polyps of Sympodium omasum sp. nov., holotype KBF-OA-00081 (MUFSCOTUG2 in Koido et al. 2019). From A. polyp body B. coenenchyme surface C. coenenchyme interior D. tentacles. Arrows: hexagonal platelets.
FIGURE 2 in A new species of Sympodium (Octocorallia, Xeniidae) from Miyazaki, Japan
FIGURE 2. Sympodium omasum sp. nov. A. Holotype KBF-OA-00081 (MUFS-COTUG2 in Koido et al. 2019). B. Higher magnification of part of the holotype (KBF-OA-00081). C. Paratype KBF-OA-00082 (MUFS-COTUK16 in Koido et al. 2019) D. Higher magnification of part of the paratype (KBF-OA-00082). E. Paratype KBF-OA-00083 (MUFS-COMO63 in Koido et al. 2019). F. Higher magnification of part of the paratype (KBF-OA-00083). G. Paratype KBF-OA-00084. H. Higher magnification of part of the paratype (KBF-OA-00084). The red arrow indicates where the polyps are densely packed form knob-like mounds. The yellow arrow indicates where the polyps are less dense and coenenchyme can be observed. Scale bar: 10 mm.
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