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FIGURE 3 in Interesting Botryosphaeria (Botryosphaeriaceae) associated with Magnolia species in Thailand: Additions of two new host records with their lifestyles
FIGURE 3. Botryosphaeria puerensis (HKAS 107129, new host record). a–c. Appearance of ascomata on substrate. d, e. Sections through ascomata. f. Peridium. g. Paraphyses. h–j. Asci. k–n. Ascospores. Scale bars: a, b = 500 μm, c = 200 μm, d, e = 50 μm, f, h–j = 20 μm, g = 10 μm, k–n = 5 μm.
FIGURE 10 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 10. Scanning electron micrographs of Zyxibothrium healyae n. sp. (A) Scolex, small letters indicate location of details in micrographs B–G. (B) Apex of scolex sparsely covered with long slender aristate gladiate spinitriches and densely packed capilliform filitriches. (C) Proximal surface of anterior loculus densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (D) Proximal surface of middle loculus densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (E) Proximal surface of posterior loculus densely covered with long slender gladiate spinitriches, filitriches not observed. (F) Distal bothridial surface densely covered with long slender aristate gladiate spinitriches interspersed with capilliform filitriches. (G) Cephalic peduncle densely covered with large gladiate spinitriches interspersed with small gladiate spinitriches, filitriches not observed.
FIGURE 9 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 9. Line drawings of Zyxibothrium healyae n. sp. (A) Scolex (paratype, CR-76-1, NMNZ No. W.003931). (B) Detail of terminal genitalia (holotype, CR-75-2, NMNZ No. W.003930). (C) Whole worm (holotype, CR-75-2, NMNZ No. W.003930). (D) Mature proglottid (paratype, CR-75-1, LRP No. 9799).
FIGURE 6 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 6. Scanning electron micrographs of Zyxibothrium kamienae Hayden and Campbell 1981. (A) Scolex, small letters indicate location of details in micrographs B–H. (B) Apex of scolex densely covered with very long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (C) Distal bothridial surface densely covered with very long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (D) Posterior region of scolex proper densely covered with gladiate spinitriches, filitriches not observed. (E) Proximal bothridial surface away from locular margins densely covered with gladiate spinitriches, filitriches not observed. (F) Proximal surface of anterior loculus densely covered with very long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (G) Proximal surface of paired loculi densely covered with very long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (H) Proximal surface of posterior loculus densely covered with long slender gladiate spinitriches interspersed with acicular filitriches.
FIGURE 3 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 3. Line drawings of Pentaloculum grahami n. sp. (A) Scolex (paratype, SA-2-1, LRP No. 10947). (B) Mature subterminal proglottid (paratype, SA-16-1, USNM No. 1678892). (C) Detail of terminal genitalia (holotype, SA-16-3, QM No. G240343). (D) Gravid terminal proglottid (holotype, SA-16-3, QM No. G240343). (E) Whole worm (holotype, SA-16-3, QM No. G240343).
FIGURE 5 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 5. Photomicrographs of cocoons of Pentaloculum grahami n. sp. showing variation in number of oncospheres. (A) Cocoon containing five oncospheres. (B) Cocoon containing six oncospheres.
FIGURE 1 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 1. Phylogenetic tree resulting from Bayesian Inference and Maximum Likelihood analyses of the D1–D3 region of the 28S rDNA gene for species in Clade 1 of Caira et al. (2017) (green box). Scale bar indicates substitutions per site. Nodes with bootstrap values ≥ 90 and posterior probabilities ≥ 99 are indicated by black dots. Nodes with bootstrap values ≥ 70 and posterior probabilities ≥ 95 are indicated by grey dots. Taxon labels are presented as cestode and host names followed by host specimen number in parentheses, Lawrence R. Penner Parasitological Collection accession number for hologenophores, and GenBank accession number. Newly generated sequences are in boldface type.
FIGURE 2 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 2. Scanning electron micrographs of Pentaloculum macrocephalum Alexander 1963. (A) Scolex, small letters indicate location of details in micrographs B–F. (B) Distal bothridial surface densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (C) Cephalic peduncle densely covered with large gladiate spinitriches, filitriches not observed. (D) Proximal surface of anteriormost loculus densely covered with longtipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (E) Proximal surfaces of anterior pair of loculi densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (F) Proximal surfaces of posterior pair of loculi densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches.
FIGURE 8 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 8. Scanning electron micrographs of Zyxibothrium duffyi n. sp. (A) Scolex, small letters indicate location of details in micrographs B–G. (B) Apex of scolex densely covered with capilliform filitriches. (C) Proximal surface of anteriormost loculus densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (D) Proximal surfaces of anterior pair of loculi densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (E) Proximal surfaces of posterior pair of loculi densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches, filitriches not observed. (F) Distal bothridial surface densely covered with long slender aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (G) Cephalic peduncle densely covered with long slender gladiate spinitriches interspersed with long slender aristate gladiate spinitriches, filitriches not observed.
FIGURE 4 in Phylogenetic relationships, host associations, and three new species of a poorly known group of "tetraphyllidean" tapeworms from elasmobranchs
FIGURE 4. Scanning electron micrographs of Pentaloculum grahami n. sp. (A) Scolex, small letters indicate location of details in micrographs B–H. (B) Distal bothridial surface densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (C) Apex of scolex covered with gladiate spinitriches and densely packed capilliform filitriches. (D) Scolex proper densely covered with gladiate spinitriches interspersed with capilliform filitriches. (E) Proximal surface of margin of anteriormost loculus densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (F) Proximal surfaces of margins of anterior pair of loculi densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (G) Proximal surfaces of margins of posterior pair of loculi densely covered with long-tipped aristate gladiate spinitriches interspersed with gladiate spinitriches and capilliform filitriches. (H) Proximal surfaces away from margins of posterior pair of loculi densely covered with short-tipped wide aristate gladiate spinitriches, filitriches not observed.
Supplementary material 3 from: Kise H, Nishijima M, Iguchi A, Minatoya J, Yokooka H, Ise Y, Suzuki A (2023) A new hexactinellid-sponge-associated zoantharian (Porifera, Hexasterophora) from the northwestern Pacific Ocean. ZooKeys 1156: 71-85. https://doi.org/10.3897/zookeys.1156.96698
Bayesian-inference tree based on combined dataset of COI, 12S-rDNA, 16S-rDNA, 18S-rDNA, 28S-rDNA, and ITS-rDNA sequences. Number at nodes represent Bayesian posterior probabilities (>0.95)
Supplementary material 4 from: Kise H, Nishijima M, Iguchi A, Minatoya J, Yokooka H, Ise Y, Suzuki A (2023) A new hexactinellid-sponge-associated zoantharian (Porifera, Hexasterophora) from the northwestern Pacific Ocean. ZooKeys 1156: 71-85. https://doi.org/10.3897/zookeys.1156.96698
Maximum-likelihood tree based on ITS-rDNA sequences. Number at nodes represent ML bootstrap values (>50% are shown)
FIGURE 2. Chaperia atypica n in Epibiotic association of encrusting cheilostome bryozoans on shells of an invasive mussel from rocky shores of South Africa, with the description of a new aviculiferous species of Chaperia
FIGURE 2. Chaperia atypica n. sp. A–C. SAMC-A094525. A. General view of the colony. B. Group of zooids, showing pore-chamber windows and spines. C. Close-up of the orifice. D. Paratype, SAMC-A094513. Group of zooids with arrows indicating twinned and single interzooidal avicularia. E, F. Holotype, SAMC-A094514. E. Group of ovicelled zooids with arrows indicating vestigial ooecia. F. Close-up of the vestigial ooecia with an arrow indicating the ooecial pore. Scale bars: A = 1 mm; B = 0.4 mm; C = 0.1 mm; D, E = 0.4 mm; F = 0.2 mm.
FIGURE 1 in Epibiotic association of encrusting cheilostome bryozoans on shells of an invasive mussel from rocky shores of South Africa, with the description of a new aviculiferous species of Chaperia
FIGURE 1. Map showing the location of 15 intertidal rocky-shore sites along the south–southeast coast of South Africa where epibiotic bryozoans were sampled on live shells of the mussel Mytilus galloprovincialis.
FIGURE 3. A–C. Celleporella hyalina SAMC-A094510. A in Epibiotic association of encrusting cheilostome bryozoans on shells of an invasive mussel from rocky shores of South Africa, with the description of a new aviculiferous species of Chaperia
FIGURE 3. A–C. Celleporella hyalina SAMC-A094510. A. General view of the colony. B. Single ovicelled zooid. C. Group of ovicelled zooids and a male dwarf zooid. D–F. Hippomonavella sp. SAMC-A094529. D. Group of zooids. E. Group of zooids, some with developing ovicells. F. Close-up of the orifice, showing condyles and suboral avicularium. Scale bars: A = 1 mm; B, C = 0.2 mm; D = 1 mm; E = 0.4 mm; F = 0.1 mm.
FIGURE 1 in Nomenclatural and taxonomic changes in parasitic isopods (Isopoda: Epicaridea) including two new families and note on the questionable association between monogeneans and bopyrids
FIGURE 1. Bopyrus foliosus Kr̂yer in Gaimard, [1842]. A, female, ventral view. B, female, dorsal view. C, male, dorsal view. D, pereopod (presumed from male). Stegophrixus [sic] thompsoni Nierstrasz & Brender à Brandis, 1931. E, female, dorsal view (oostegites not drawn). F, male, dorsal view. Figures not to scale. A–D from Kr̂yer in Gaimard [1842]; E, F from Nierstrasz & Brender à Brandis (1931).
FIGURE 4. Capitoniscus cumacei Bourdon, 1972. A in Nomenclatural and taxonomic changes in parasitic isopods (Isopoda: Epicaridea) including two new families and note on the questionable association between monogeneans and bopyrids
FIGURE 4. Capitoniscus cumacei Bourdon, 1972. A, cryptoniscus larva, dorsal view. B, antennule. C, pereopod 1. D, pereopod 3. E, pereopod 7. I, female, ventral view. Capitoniscus peruvicus (Menzies & George, 1972) n. comb. F, cryptoniscus larva, dorsal view. Carocryptus laticephalus Schultz, 1977. G, cryptoniscus larva. Capitoniscus australis Bourdon, 1981. H, pleotelson, distal margin, dorsal view. Cumoechus insignis Hansen, 1916. J, female, dorsal view. "Leponiscus pollicipedis" Giard, 1887 (nomen nudum) (= Hemioniscus sp.). K, male, ventral view, in part. Figures not to scale. A–E, I from Bourdon (1972); F from Menzies & George (1972); G from Schultz (1977); H from Bourdon (1981a); J from Hansen (1916); K from Bocquet-Védrine & Bocquet (1972).
FIGURE 3 in Nomenclatural and taxonomic changes in parasitic isopods (Isopoda: Epicaridea) including two new families and note on the questionable association between monogeneans and bopyrids
FIGURE 3. Synsynella choprae (Pearse, 1932) (originally identified as Bopyrina crangona Pearse, 1953) from Synalpheus brooksi Coutière, 1909 (USNM 143663). A, female, dorsal view; B, female, ventral view; C, female pleon, dorsal view; D, male, dorsal view. E, Bopyrina crangona Pearse, 1953, holotype on slide (USNM 95120). F, Bopyrina crangona Pearse, 1953, allotype on slide (USNM 95121). Scale bars: A–C = 500 µm; D = 250 µm; E, F are 75 mm microscope slides.
FIGURE 2. Palaemon adspersus Rathke, 1836 in Nomenclatural and taxonomic changes in parasitic isopods (Isopoda: Epicaridea) including two new families and note on the questionable association between monogeneans and bopyrids
FIGURE 2. Palaemon adspersus Rathke, 1836 with Bopyrus crangorum (Fabricius, 1798). A, Palaemon adspersus, nonovigerous female (10.6 mm CL, not including length of rostrum) showing swelled right branchial chamber from which female and male of B. crangorum were removed. B, same specimen in A, lateral view. C, B. crangorum, neotype female (RMNH.CRUS. I.1667), dorsal view. D, same specimen in C, ventral view (note: most of eggs in brood chamber removed). E, B. crangorum, male, dorsal view. F, same specimen in E, ventral view. Scale bars: A, B = 5 mm; C, D = 3 mm; E, F = 1 mm.
FIGURE 17 in Using DNA barcodes to test the association of sexes and morphs in Calodesma spp (Lepidoptera, Erebidae, Arctiinae, Arctiini, Pericopina) of Trinidad, West Indies with an overview of the genus, taxonomic changes and a new species
FIGURE 17. Mimicry ring of diurnal black moths with white or transparent spots in Trinidad, W.I. in which the white morphs of the two Calodesma spp. in Trinidad fit; all captured at flowers of Austroeupatorium inulaefolium; A-C, dorsal view above, ventral view below; D–E, dorsal view left, ventral view right. A, Ctenucha andrei Rothschild ♀ Cat's Hill, 24.ix.2017 (J. Morrall). B, Autochloris almon (Cramer) ♀, data as #A. C, Calonotus tripunctatus Druce ♀, data as #A. D, Melanchroia atera (Stoll) ♁, Parrylands, x.2017 (S. Alston-Smith). F, M. atera ♀, data as #A. Life size.
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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)
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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.