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291 results for “monophyletic”
FIGURE 17 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 17. Female genitalia morphology of Plega dactylota. (a, b) Ventral view. (c, d) Dorsal view. (e, f) Lateral view. Abbreviations: bc, bursa copulatrix; dv, diverticulum; d.s., distal section of spermatheca; fc, fertilization canal; fcd, fertilization canal duct; m.s., medial section of spermatheca; p.s., proximal section of spermatheca; spm, spermatheca (Table 1).
FIGURE 3 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 3. Morphology of mouthparts of Plega dactylota. (a, b) Mandibles, dorsal view. (c, d) Maxilla in dorsal and ventral view. (e, f) Labium, ventral view. Abbreviations: ai, apical incisor; ca, cardo; ga, galea; lac, lacinia; lbp, labial palpus; lig, ligula; mp, molar process; mt, mentum; mxp, maxillary palpus; pf, palpifer; pg, palpiger; pmt, prementum; st, stipes; smt, submentum (Table 1).
FIGURE 7 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 7. Scanning electron micrographs of foreleg integumentary specializations of Plega dactylota. (a) Proximal half of femoral closing surface. (b) Detail of medial region of the integumentary specializations rows. (c) Distal half of femoral closing surface. (d) Detail of distal region of the integumentary specializations rows. (e) medial region of the tibia in lateral view. (f) detail of the tibial ventral keel and prostrate setae row. (g) Anterior surface of tibia apex and tarsus. (h) Detail of the basitarsus. Abbreviations: avr, anteroventral row of processes; bt, basitarsus; cvs, clavate setae; et, eutarsus; fe, femur; ftso, foretarsal Stitz organ; lcp, lanceolate process; p, primary process; prs, prostrate seta; ptc, pretarsal claw; pvr, posteroventral row of processes; pths, pedicellate thickened seta; s, secondary process; sshs, stinger shaped seta; t, tertiary process; ti, tibia; tbs, tubercle-shaped specialization; tvk, tibial ventral keel; tsgb, thickened seta with globular base (Table 1).
FIGURE 11 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 11. Mid- and hind leg morphology of Plega dactylota. (a) Mid leg. (b) Hind leg. Abbreviations: ar, arolium; bt, basitarsus; cx, coxa; et, eutarsus; fe, femur; ptc, pretarsal claw; ti, tibia; tr, trochanter; tsp, tibial spur (Table 1).
FIGURE 13 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 13. Male terminalia morphology of Plega dactylota. (a, b) Male terminalia, lateral view. (c, d) Ventral surface of ectoprocts. (e, f) Dorsal surface of sternite IX (arrow showing the posteromedial canal). Abbreviations: cc, callus cerci; ect, ectoproct; dp, digitiform processes; gxIX, ninth gonocoxite; s, sternite; t, tergite (Table 1).
FIGURE 10 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 10. Wings of Plega dactylota. (a) Fore- and hind wing showing relevant morphological characters. (b) Interpretation of the wing venation (colors showing the homology with other raptorial Mantispoidea). Abbreviations: C, costal vein; g.s., gradate series; h, humeral vein; jl, jugal lobe; jv, jugal vein; pt, pterostigma; rarp, anterior radial cell; scvl, subcostal veinlets; 1r-m, first crossvein of radiomedial space (Table 1).
FIGURE 16 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 16. Female terminalia morphology of Plega dactylota. (a, b) Lateral view. (c, d) Ventral view. Abbreviations: ect, ectoproct; gp, genital pore; s, sternite; t, tergite (Table 1).
FIGURE 15 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 15. Male genitalia morphology of Plega dactylota. (a, b) Dorsal view. (c, d) Ventral view. Abbreviations: dp, digitiform processes; ml, median lobe of gonocoxites XI (Table 1).
FIGURE 21 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 21. Foreleg of Rhachiberothinae and Symphrasinae, anterior surface. (a) Mucroberotha vesicaria. (b) Rhachiberotha ingwe. (c) Trichoscelia nassonovi. (d) Anchieta fumosella. (e) Anchieta partheniella. (f) Anchieta fasciatella. Abbreviations: fe, femur; ta, tarsus; ti, tibia; tr, trochanter; p, primary process; prt, pretarsus (Table 1).
FIGURE 19 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 19. Prothorax of Rhachiberothidae and Mantispidae in dorsal view. (a) Mucroberotha vesicaria. (b) Anchieta partheniella. (c) Theristria hillieri. (d) Calomantispa venusta. (e) Campion sp. Abbreviations: mac, macula; pn, pronotum (Table 1).
FIGURE 9 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 9. Sclerites of the wing bases of Plega dactylota. (a) Micrograph in dorsal view. (b) Drawing of the sclerites. Abbreviations: ANWP, anterior notal wing process; BA, basanale; BR, basiradiale; Bsc, basisubcostale; DMP, distal median plate; HP, humeral plate; PMP, proximal median plate; PNWP, posterior notal wing process; Tg, tegula; 1Ax, first axillary sclerite; 2Ax, second axillary sclerite; 3Ax, third axillary sclerite (Table 1).
FIGURE 8 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 8. Pterothorax morphology of Plega dactylota. (a, b) Lateral view. (c, d) dorsal view. Abbreviations: at, acrotergite; apc, anapleural cleft; anes, anepisternum; ba, basalare; cvgs, lateral parapsidal suture; em, epimeron; ktes, katepisternum; m, meron; pls, pleural suture; psn, postnotum; pwp, pleural wing process; pcxs, paracoxal suture; prep, preepisternum; scll, scutellum; sct, scutum; spi, spircle; sasc, subalar sclerite; sscs, scutoscutellar suture; tI, abdominal tergite I; trt, trochantin; teps, transepimeral suture (Table 1).
FIGURE 24 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 24. Scanning electron micrographs of foreleg integumentary specializations of Trichoscelia santareni. (a) Detail of the two rows of integumentary specializations on the ventral surface of femur. (b) Detail of the proximal region of the integumentary specializations rows. (c) Detail of the distal region of the integumentary rows of processes. (d) Close-up of the femoral integumentary specializations rows. (e) Close-up of the integumentary specializations on the femur and tibia in lateral view. (f) Detail of the tibia in lateral view. (g) Detail of the tibial apex and tarsus, anterior surface. (h) Close-up of the foretarsal Stitz organ. Abbreviations: ar, arolium; avr, anteroventral row of processes; bt, basitarsus; cvs, clavate setae; et, eutarsus; fe, femur; fcs, femoral closing surface; ftso, foretarsal Stitz organ; lcp, lanceolate process; prs, prostrate seta; ptc, pretarsal claw; pvr, posteroventral row of processes; ti, tibia; tbs, tubercle-shaped specialization; tvk, tibial ventral keel; tsgb, thickened seta with globular base (Table 1).
FIGURE 20 in Comparative morphology of extant raptorial Mantispoidea (Neuroptera: Mantispidae, Rhachiberothidae) suggests a non-monophyletic Mantispidae and a single origin of the raptorial condition within the superfamily
FIGURE 20. Prothorax morphology of Rhachiberothidae and Mantispidae in lateral view. (a, b) Mucroberotha vesicaria. (c, d) Plega dactylota. (e, f) Theristria hillieri. (g, h) Nolima victor. (i, j) Campion sp. Abbreviations: es, episternum; lc, posterior cervical sclerite; mac, macula; pn, pronotum; pfs, postfurcasternum; prb, precoxal bridge (Table 1).
FIGURE 2 in Towards a monophyletic classification of Lejeuneaceae I: subtribe Leptolejeuneinae subtr. nov.
FIGURE 2. Phylogram generated in a maximum likelihood analysis of the combined dataset with bootstrap percentage values ≥ 50 % indicated at branches.
FIGURE 1 in Towards a monophyletic classification of Lejeuneaceae I: subtribe Leptolejeuneinae subtr. nov.
FIGURE 1. Strict consensus of 81 equally parsimonious trees based on the combined nrITS- chloroplast DNA rbcL – trnL-trnF dataset with bootstrap percentage values ≥ 50 % at branches.
FIGURE 2 in Towards a monophyletic classification of Lejeuneaceae II: subtribes Pycnolejeuneinae and Xylolejeuneinae subtr. nov., transfer of Otolejeunea to Lepidolejeuninae, and generic refinements
FIGURE 2. Majority rule consensus tree of trees recovered in stationary phase of Bayesian search. Support (≥ 0.95) from Bayesian searches is indicated at branches.
FIGURE 1 in Towards a monophyletic classification of Lejeuneaceae II: subtribes Pycnolejeuneinae and Xylolejeuneinae subtr. nov., transfer of Otolejeunea to Lepidolejeuninae, and generic refinements
FIGURE 1. Strict consensus of 124 equally parsimonious trees recovered during heuristic searches of the combined rbcL - trnL-F - nrITS dataset. Bootstrap percentage values>50 are indicated at branches.
FIGURE 4 in Towards a monophyletic classification of Lejeuneaceae III: the systematic position of Leiolejeunea
FIGURE 4: A. Female shoot of Leiolejeunea grandiflora with terete perianth and pair of large bracts [ventral view; scale bar = 400 µm]. B-D. Leaf cells with oil bodies [B: Leiolejeunea grandiflora, scale bar = 10 µm C: Cheilolejeunea insecta, D: Cheilolejeunea acutangula, scale bars for C + D = 10 µm]. A, B from Jamaica, Schäfer-Verwimp 35394 (M); C from Brazil, Schäfer-Verwimp & Verwimp 12785, paratype (JE); D from Brazil, Schäfer-Verwimp & Verwimp 14148 (JE).
FIGURE 1 in Towards a monophyletic classification of Lejeuneaceae III: the systematic position of Leiolejeunea
FIGURE 1: Strict consensus of 2 equally parsimonious trees recovered in maximum parsimony analyses of the combined rbcL - trnL-F - nrITS dataset. Bootstrap percentage values (BPV) ≥ 50 % are indicated at branches.
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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.