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FIGURE 9 in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 9. Exechonella pumicosa Canu & Bassler, 1928. Florida (A‒D: holotype USNM 7838, Atlantic Ocean, non-cleaned colony; E: USNM 10127, Atlantic Ocean; F‒G: USNM 545922, Caribbean Sea, non-cleaned colony). A‒B, general view of holotype from above. C‒D, close-up of autozooids showing shape of primary orifice. E, general view of old abraded colony from above. F, peripheral part of non-cleaned colony with young zooid forming frontal shield (in the centre) and kenozooid (arrow). G, zooidal orifice with partially broken operculum. Kenozooid (k) is seen in the right upper corner. Scale bars: A, B, E, F = 500 µm; C, G = 200 µm; D = 100 µm.
FIGURE 4. Exechonella variperforata n in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 4. Exechonella variperforata n. sp. Great Barrier Reef, Lizard Island (A, B: holotype MTQ G100217; C‒F: paratype MTQ G100218). A, general view of the colony from above. Ancestrular zone is overgrown by calcareous algae. B, autozooid showing various foraminal shapes. C, general view of the colony fragment from above ('gaps' between zooids are clearly seen; peristome of left zooid bears two spikes). D, lateral view of the same fragment showing marginal pores arranged in 2‒3 rows and multiporous septula. E, primary orifice with condyles (arrows) visible. F, distolateral view of the frontal shield with foramina, two of which bear short pointed process. Scale bars: A = 1 mm; B‒ F = 100 µm.
FIGURE 2 in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 2. Exechonella erinacea (Canu & Bassler, 1929). Philippines, Jolo Island (A‒D: lectotype USNM 7967). A, B, general view of the colony from above. C, three autozooids showing opercula and a shape of the primary orifice. Kenozooids with pores pointed by arrows. D, close-up of two zooids showing the shape of foraminal luminae and a condyle (arrowhead). Scale bars: A, B = 500 µm; C, D = 200 µm.
FIGURE 20. Exechonella elegantissima n in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 20. Exechonella elegantissima n. sp. (A‒E: MTQ G100214, Great Barrier Reef, Lizard Island; F, G, holotype: DPUV 2012-0006-0001, Northern Bay of Safaga). A, general colony view from above. B, C, group of autozooids showing details of peristomes and frontal shields. Two kenozooids shown by arrows in C. D, E, details of primary orifice and peristome. Condyle shown by arrow F, G, lateral view of peripheral colony part showing shape of peristomes and narrow multiporous mural septula. Scale bars: A = 1 mm; B‒G = 100 µm.
FIGURE 1 in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 1. Exechonella ampullacea Hayward & Ryland, 1995. Great Barrier Reef, Heron Island (A, C, E: holotype QM G304975; B, D, F: paratype QM G304977). A, B, general view of the colony from above. C, cleaned frontal shield showing the shape of foramina. D, condyle with a 'pocket'; E, lateral view of the holotype specimen showing mural septula and kenozooid (arrow); F, broken autozooid showing distal transverse wall with communication pores, right condyle with a 'pocket' (arrowhead), distal, proximal and lateral walls of peristome and underside of broken frontal shield. Marginal pores with centrally perforated cuticular plate are seen together with more distal communication pores (their cuticular plate is completely or partially destroyed), and cross-sectioned foramen of the frontal shield (seen above). Scale bars: A, B = 1 mm; C, F = 100 µm; D = 30 µm; E = 500 µm.
FIGURE 15 in Revision of the Recent species of Exechonella Canu & Bassler in Duvergier, 1924 and Actisecos Canu & Bassler, 1927 (Bryozoa, Cheilostomata): systematics, biogeography and evolutionary trends in skeletal morphology
FIGURE 15. Exechonella brasiliensis Canu & Bassler, 1928. Atlantic Ocean, Brazil (A‒E: holotype USNM 8547; F‒H: USMN 8582). A, C, D, general view of holotype from above. B, close-up of autozooid, showing shape of primary orifice; E, close-up of frontal shields with two foramina bearing avicularia (arrowheads). F, view of central part of colony from above (some lateralmost foramina with avicularia shown by arrows). G, close-up of autozooid showing shape of primary orifice and lateralmost foramina with avicularium (arrowhead). H, close-up of lateralmost foramina with avicularium. Scale bars: A, B, E = 100 µm; C, D, G = 200 µm; F = 500 µm; H = 50 µm.
FIGURE 2 in Phylum Nematoda: trends in species descriptions, the documentation of diversity systematics, and the species concept
FIGURE 2. Proposal of new nematode genera per decade (columns) and total number of valid genera (points and line). The columns represent the total increase in the decade. The points and line represent the total number of valid genera at the end of the decade; i.e. the column for 2010 represents the genera added from the beginning of 2001 to the end of 2010, and the point for 2010 represents the number of genera at the end of 2010.
FIGURE 1 in Phylum Nematoda: trends in species descriptions, the documentation of diversity systematics, and the species concept
FIGURE 1. Descriptions of new nematode species per year. Circles are for all publications, triangles for the journal Zootaxa only. Filled symbols represent arithmetic mean rates per year for the period surrounding the point. Empty symbols represent estimates at the time. See text for full description. Trend lines are illustrative only.
FIGURE 34. Lichenomorphus species. Cerci and subgenital plates. A, D, E. L in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 34. Lichenomorphus species. Cerci and subgenital plates. A, D, E. L. montealegrezi. Habitus in lateral view, cerci and subgenital plates. B–C. L. oscari. F–G. L. berezini. H–I. L. ocraceithorax. J–K. L. fuscifrons. (Figs. H–K. after Costa-Lima & Guitton, 1961).
FIGURE 26. Dissonulichen s.s. species. A, D–E. D in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 26. Dissonulichen s.s. species. A, D–E. D. (D) simplicipes s.s. B–C. D. (D) hebardi. F–G. D. (D) minensis. H–I. D. (D) satipo. A. Male habitus in lateral view. B, D, F, H. Cerci. C, E, G, I. Subgenital plates. (Figs. B–E. after Costa-Lima & Guitton, 1960; H–I. after Gorochov, 2012).
FIGURE 27. Paraphidnia species. A–B. P. brevicristata. C–D. P. gallina. E–G. P. tunki. A, C, F in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 27. Paraphidnia species. A–B. P. brevicristata. C–D. P. gallina. E–G. P. tunki. A, C, F. Head and pronotum in lateral view. B, D, G. Cerci in dorsal view. E. Habitus in lateral view.
FIGURE 28. Anaphidna species. A. A. bezverkhovi. B. A. svetlanae. C–D. A. hernandezi. E. A. osae osae. F. A. tarsalis. G. A. fasciata H. A. bezverkhovi. I. A. verrucosa. J. A. polestshuki. A–B in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 28. Anaphidna species. A. A. bezverkhovi. B. A. svetlanae. C–D. A. hernandezi. E. A. osae osae. F. A. tarsalis. G. A. fasciata H. A. bezverkhovi. I. A. verrucosa. J. A. polestshuki. A–B. Pronotum in lateral view. C. Habitus in lateral view. D–J. Denticles of upper rostral crest from side.
FIGURE 25. Dissonulichospinus n. subgen. species. A–C. D in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 25. Dissonulichospinus n. subgen. species. A–C. D. (D) ornatus n. comb. D–E. D. (D) difussa n. comb. F–G. D. (D) elegans. A. Male habitus in lateral view. B, D, F. Cerci. C, E, G. Subgenital plates (Figs. B, C, F, G. after Costa-Lima & Guitton, 1960).
FIGURE 29. Anaphidna species. A. A. peruana. B. A. svetlanae. C–D. A. rubricorpus. E. A. lankesteri. F. A. rhinoceros. G. A. mexicana. H. A. obrieni. I. A. gracielae. J. A. silvai. K. A. quirozi. A–D, F–I in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 29. Anaphidna species. A. A. peruana. B. A. svetlanae. C–D. A. rubricorpus. E. A. lankesteri. F. A. rhinoceros. G. A. mexicana. H. A. obrieni. I. A. gracielae. J. A. silvai. K. A. quirozi. A–D, F–I. Denticles of upper rostral crest from side.C. Habitus in lateral view. E, J, K. Head and pronotum in lateral view.
FIGURE 33. Dysonia species. A–C. D. holgeri. D–E. D. zikani. F–G. D. pardalis. H–I. D. monticola. J–K. D. melaleuca. L–M. D. alipes. A in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 33. Dysonia species. A–C. D. holgeri. D–E. D. zikani. F–G. D. pardalis. H–I. D. monticola. J–K. D. melaleuca. L–M. D. alipes. A. Habitus in lateral view. B, D, F, H, J, L. Subgenital plates. C, E, G, I, K, M. Cerci. (Figs. D–E., H–J. after Costa-Lima & Guitton, 1960).
FIGURE 23. Yungasacris species. A, G–H. Y in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 23. Yungasacris species. A, G–H. Y. multa. Male habitus, cerci in dorsal and lateral view respectively. B–C. Y. grata grata cerci in dorsal and lateral view. D. Y. grata rara cerci in lateral view. E–F. Y. peruviana cerci in dorsal and lateral view respectively. (Figs. B–F. after Rehn, 1950, Figs. D, G–H. after Cadena-Castañeda & Gorochov, 2013).
FIGURE 16. Machima species. A–C. M in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 16. Machima species. A–C. M. itatiaia Antunes & Takiya, 2020. A. Male habitus in lateral view. B. Cerci in dorsal and, C. lateral view respectively. F. Ovipositor. D–J. Cerci in dorsal and lateral view: D–F. M. phyllacantha. G–H. M. scalprum. I–J. M. paranensis. (Figs. G–J. after Rehn, 1950).
FIGURE 35. Lichenomorphus species. Cerci and subgenital plates. A, D, E. L. nigrosignatus. B–C. L. pirani. F–G. L. ypsilon. H–I. L. paulistanus. J–K. L in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 35. Lichenomorphus species. Cerci and subgenital plates. A, D, E. L. nigrosignatus. B–C. L. pirani. F–G. L. ypsilon. H–I. L. paulistanus. J–K. L. carlosmendesi. (Photo A D. Mendes. Figs. F–K after Costa-Lima & Guitton, 1961).
FIGURE 22. Quiva species. A–D. Q in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 22. Quiva species. A–D. Q. (P.) angieae. E–H. Q. (Q.) pulchella. I–K. Q. (Q.) diaphana. L–N. Q. (Q.) buhrnheimi. O–Q. Q. (Q.) sharovi. R–T. Q. (Q.) abacata. U–W. Q. (Q.) gutjahrae. A, E. Male habitus in lateral view. B, F, I, L, O, R, U. Frons. C, G, J, M, P, S, V. Subgenital plates. D, H, K, N, Q, T, W. Cerci.
FIGURE 19. Lichenodraculus species. A–C. L. matti and D–F. L. holgeri. A, D in The tribe Dysoniini part VI: Phylogeny, biogeography and evolutionary trends of the lichen katydid genera (Orthoptera: Tettigoniidae: Phaneropterinae). Eleventh contribution to the suprageneric organization of Neotropical phaneropterines
FIGURE 19. Lichenodraculus species. A–C. L. matti and D–F. L. holgeri. A, D. Male holotype in lateral view. B, E. Head and pronotum. C, F. Cerci in dorsal view.
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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.