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70 results for “morphological homoplasy”
FIGURE 1. Antenna 2.18.1 in A phylogeny and classification of the Talitroidea (Amphipoda, Senticaudata) based on interpretation of morphological synapomorphies and homoplasies
FIGURE 1. Antenna 2.18.1 slender (after Bousfield 1991); 18.2 incrassate (after Bousfield 1982). Maxilliped. 20.1 palp article 2 without distomedial lobe (after Hurley 1957); 20.2 palp article 2 with distomedial lobe (after Iaciofano & Lo Brutto 2016); 21.1 palp article 4 large well defined (after Krapp-Schickel 1993); 21.2 palp article 4 small, well defined (after Duncan 1994); 21.3a palp article 4 fused to article 3 (after Bellan-Santini, 1993); 21.3b palp article 4 reduced button shaped (after Hurley 1957). Gnathopod 1. 22.1 subchelate (after White, Lowry & Morino 2013); 22.2 parachelate (after Lindeman 1990); 22.3 simple (after Lowry & Myers 2019a); 22.4 chelate (after Serejo 2004).
FIGURE 4. Female gnathopod 2 merus. 27.2 in A phylogeny and classification of the Talitroidea (Amphipoda, Senticaudata) based on interpretation of morphological synapomorphies and homoplasies
FIGURE 4. Female gnathopod 2 merus. 27.2 posterodistal lappet present (after Bousfield 1982); male gnathopod 2 dactylus 28.1 unmodified, distally blunt (after Bousfield 1958); 28.2 recurved distally (after Afonso 1977); 28.3 attenuated distally (after Lowry & Myers 2019b); 28.4 slender, distally acute (after Chevreux, 1915); 28.5 stout, distally acute (after Stock & Martin 1988). Pereopods 3–7. 29.1 simplidactylate (after Friend 1979). 29.2 cuspidactylate (after Morino 2014, Stock & Abreu 1992). Pereopod 4 dactylus. 30.2. thickened (after Stock & Abreu 1992, Lowry & Coleman 2011).
FIGURE 19 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 19. Enhydrosoma kosmetron sp. nov., line drawings, A-D, holotype ♀; F, allotype ♂: A, urosome, ventral; B, anal somite and caudal rami, dorsal; C, exopod of antenna, anterior; D, mandibula, posterior; E, maxillula, anterior; F, urosome, ventral.
FIGURE 16 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 16. Enhydrosoma kosmetron sp. nov., SEM photographs, A-D, paratype ♀1; E & F, paratype ♀2; G & H, paratype ♂1: A, habitus, dorsal; B, cephalic shield, dorsal; C, sensillum in central part of cephalic shield; D, anal somite and caudal rami, dorsal; E, rostrum, lateral; F, rostrum and left antennula, lateral; G, habitus, dorsal; H, anal somite and caudal rami, dorsal.
FIGURE 15 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 15. Enhydrosoma robustum sp. nov., line drawings, A-I, paratype ♀11; J-M, allotype ♂: A, endopod of antenna, posterior; B, cutting edge of mandibula, anterior; C, maxilla, anterior; D, third exopodal segment of first leg, anterior; E, endopod of first leg, anterior; F, endopod of third leg, anterior; G, fourth leg, anterior; H, left fifth leg, antero-lateral; I, right fifth leg, anterior; J, endopod of third leg, anterior; K, left fifth leg, posterior; L, right fifth leg, anterior; M, spermatophore.
FIGURE 14 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 14. Enhydrosoma robustum sp. nov., line drawings, A-C, paratype ♀11; D-F, allotype ♂: A, urosome, ventral; B, anal somite and caudal rami, dorsal; C, antennula, ventral; D, urosome, ventral; E, right antennula, dorsal; F, left antennula, ventral.
FIGURE 13 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 13. Enhydrosoma robustum sp. nov., SEM photographs, A, paratype ♀10; B-H, paratype ♂1: A, rostrum and antennula, dorso-lateral; B, habitus, ventral; C, rostrum, ventral; D, right antennula, ventral; E, detail of right antennula, ventral; F, rostrum and proximal part of left antennula, ventral; G, distal part of left antennula, ventral; H, mouth appendages, ventral.
FIGURE 21 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 21. Enhydrosoma kosmetron sp. nov., line drawings, allotype ♂: A, right antennula, ventral; B, distal part of left antennula, antero-ventral; C, mandibular palp, posterior; D, cutting edge of mandibula, posterior; E, maxillular palp, dorsal; F, endopod of third leg, anterior; G, endopod of fourth leg, anterior; H, fifth leg, anterior.
FIGURE 11 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 11. Enhydrosoma robustum sp. nov., SEM photographs, A & B, paratype ♀3; C-G, paratype ♀4; H, paratype ♀5: A, habitus, ventral; B, caudal rami, ventral; C, habitus, ventral; D, rostrum, antennules, and antennae, ventral; E, mouth appendages, ventral; F, fifth leg, anterior; G, caudal rami, ventro-posterior; H, maxilliped, ventral.
FIGURE 10 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 10. Enhydrosoma robustum sp. nov., SEM photographs, A-F, paratype ♀1; G & H, paratype ♀2: A, habitus, lateral; B, cephalic shield, lateral; C, posterior-distal corner of cephalic shield, lateral; D, sensillum on posterior distal corner of cephalic shield; E, free prosomites, lateral; F, sensillum on central free prosomite; G, habitus, dorso-lateral; H, caudal rami, dorso-lateral.
FIGURE 18 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 18. Enhydrosoma kosmetron sp. nov., SEM photographs, paratype ♂4: A, habitus, lateral; B, cephalic shield, lateral; C, postero-lateral corner of cephalic shield, lateral; D, sensillum on postero-lateral corner of cephalic shield; E, right antennula, lateral; F, transformed seta on first antennular segment, lateral; G, transformed seta on fifth antennular segment, lateral; H, anal somite and caudal rami, lateral.
FIGURE 23 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 23. MP cladograms resulting from an analysis of 32 morphological characters (Table 3), scored for five Enhydrosoma Boeck, 1873 species and one outgroup, Geehydrosoma intermedia (Chislenko, 1978), constructed using Winclada/NONA and Rachet Island search method: A & B, two equally parsimonious trees; C, their strict consensus. Full squares represent presumed synapomorphies, empty squares represent presumed plesiomorphies or homoplasies, numbers above squares represent characters, numbers below squares represent character states, and large italic numbers on branches represent bootstrap values from 1000 pseudoreplicates.
FIGURE 9 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 9. Enhydrosoma apimelon sp. nov., line drawings, paratype ♀10: A, third swimming leg, anterior; B, fourth swimming leg, anterior.
FIGURE 8 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 8. Enhydrosoma apimelon sp. nov., line drawings, paratype ♀10: A, maxillula, posterior; B, maxilliped, posterior; C, first swimming leg, anterior; D, second swimming leg, anterior.
FIGURE 20 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 20. Enhydrosoma kosmetron sp. nov., line drawings, holotype ♀: A, antennula, ventral; B, maxilla, posterior; C, maxilliped, posterior; D, second endopodal segment of first leg, anterior; E, third exopodal segment of first leg, anterior; F, endopod of second leg, anterior; G, endopod of third leg anterior; H, endopod of fourth leg, anterior; I, fifth leg, anterior.
FIGURE 12 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 12. Enhydrosoma robustum sp. nov., SEM photographs, A & B, paratype ♀6; C & D, paratype ♀7; E-G, paratype ♀8; H, paratype ♀9: A, habitus, lateral; B, caudal rami, lateral; C, habitus, ventro-lateral; D, antennulae and antennae, ventrolateral; E, habitus, ventral; F, antennulae and antennae, ventral; G, last two urosomites and caudal rami, ventral; H, antennula, lateral.
FIGURE 22 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 22. ML tree based on partial mtCOI sequence data from 14 Cletodidae specimens from Korea and Russia, constructed using MEGA v. 6 and TN93+G+I model of evolution, with numbers on branches representing NJ/MP/ML bootstrap values from 1000 pseudoreplicates. Cladogram is drawn to scale and specimen codes or GenBank numbers correspond to those in Table 1. MP values are those from last of nine equally parsimonious trees. All trees were rooted with Stylicletodes sp.
FIGURE 6 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 6. Enhydrosoma apimelon sp. nov., line drawings, paratype ♀10: A, rostrum and left antennula without armature, dorsal; B, first segment of antennula, ventral; C, second segment of antennula, ventral; D, second segment of antennula, dorsal; E, third segment of antennula, dorsal; F, fourth segment of antennula, ventral; G, fifth segment of antennula, ventral; H, fifth segment of antennula, dorsal; I, antenna, posterior; J, fifth leg, anterior.
FIGURE 5 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 5. Enhydrosoma apimelon sp. nov., line drawings, A-C, paratype ♀10; D, paratype ♂5: A, urosome, ventral; B, anal somite and caudal rami, dorsal; C, anal somite and right caudal ramus, lateral; D, urosome, ventral.
FIGURE 4 in Concordance between molecular and morphology-based phylogenies of Korean Enhydrosoma (Copepoda: Harpacticoida: Cletodidae) highlights important synapomorphies and homoplasies in this genus globally
FIGURE 4. Enhydrosoma apimelon sp. nov., SEM photographs, A-E, paratype ♂2; F & G, paratype ♂3; H, paratype ♂4: A, habitus, ventral; B, last two urosomites and caudal rami, ventral; C, fifth and sixth legs, anterior; D, right antennula, ventral. E, left antennula, ventral (distal part broken off); F, left antennula, ventral; G, rostrum, antero-ventral; H, antenna, ventral.
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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.