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822 results for “systematic position”
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.
FIGURE 3 in Towards a monophyletic classification of Lejeuneaceae III: the systematic position of Leiolejeunea
FIGURE 3. Majority rule consensus tree of trees recovered in stationary phase of Bayesian search (homogeneous model of evolution). Support (≥ 0.95) from Bayesian searches is indicated at branches.
FIGURE 2 in Towards a monophyletic classification of Lejeuneaceae III: the systematic position of Leiolejeunea
FIGURE 2. Phylogram generated in a maximum likelihood analysis of the combined dataset with bootstrap percentage values (BPV) ≥ 50 % indicated at branches (heuristic search with separate models of evolution for every molecular marker).
FIGURE 3 in Revisiting the systematic positions of two "Notocupes" species from the Lower Cretaceous of South China (Coleoptera: Polyphaga)
FIGURE 3. Lasiosyne multituberata comb. nov., holotype, NIGP38565, under incident light (A) and scanning electron microscopy (B–D). A, Habitus. B, Prothorax. C, Mesocoxae and elytral base. D, Elytral apex. Abbreviations: el, elytron; es, elytral suture; msc, mesocoxa; pn, pronotum; s1–5, striae 1–5; sr, shoulder region. Scale bars: 3 mm in A, 1 mm in B–D.
FIGURE 1 in Revisiting the systematic positions of two "Notocupes" species from the Lower Cretaceous of South China (Coleoptera: Polyphaga)
FIGURE 1. General habitus of "Notocupes" undatabdominus, holotype, NIGP38559, under incident light, with prosternal carinae (arrowhead in A) and the curved suture between ventrites 4 and 5 (arrowhead in B) highlighted. Arrows indicate the direction of light. Abbreviations: el, elytron; msc, mesocoxa; msvc, mesoventral cavity; mtc, metacoxa; v3–5, ventrites 3–5. Scale bars: 1.5 mm.
FIGURE 2 in Revisiting the systematic positions of two "Notocupes" species from the Lower Cretaceous of South China (Coleoptera: Polyphaga)
FIGURE 2. Details of "Notocupes" undatabdominus, holotype, NIGP38559, under scanning electron microscopy. A, Head and prothorax, showing the prosternal carinae (arrowhead). B, Mesothorax. C, Metacoxae and abdominal base. D, Abdominal apex, showing the curved suture between ventrites 4 and 5 (arrowhead). Abbreviations: el, elytron; hd, head; hy, hypomeron; msc, mesocoxa; msvc, mesoventral cavity; mtc, metacoxa; v2–5, ventrites 2–5. Scale bars: 600 μm.
FIGURE 2 in On the systematic position of the genus Timmiella (Dicranidae, Bryopsida) and its allied genera, with the description of a new family Timmiellaceae
FIGURE 2. Opercula (A, C, E, G, I, K) and peristomes (B, D, F, H, J, L) of Timmiella and Luisierella. A, B. Timmiella acaulon. C, D. T. anomala. E, F. T. barbuloides. G, H. T. crassinervis. I, J. T. diminuta. K, L. Luisierella barbula (Peristome teeth indicated by arrowheads). A, B from C. C. Hosseus 396 (HIRO). C, D from Y. Inoue 1910 (HIRO). E, F from C. C. Townsend s.n. (HIRO). G, H from W. B. Schofield 14404 (HIRO). I, J from C. Y. Chang s.n. (TNS). K from R. A. Pursell 632 (HIRO). L from R. L. Redfearn Jr. 73–55 (HIRO). Scale bars = 100 µm.
FIGURE 1 in On the systematic position of the genus Timmiella (Dicranidae, Bryopsida) and its allied genera, with the description of a new family Timmiellaceae
FIGURE 1. Phylogenetic tree based on analysis with the concatenated sequences of chloroplast rps4 and rbcL genes, depicted by a 50% majority-rule consensus tree for the 9 topologies passing both AU and PP tests. Supporting values more than 50% obtained by the program CONSEL were overlaid: the values by the AU test (AU), bootstrap probabilities calculated through the same theory as AU (NP), and Bayesian posterior probabilities (PP) are shown on or near each branch (AU/NP/PP). The root is arbitrarily placed on the branch leading to the clade which includes members of the genera Buxbaumia and Diphyscium following Tsubota et al. (2003, 2004) and Cox et al. (2010).
Figure 5 in The systematic position of the tribe Stenodemini (Heteroptera: Cimicomorpha: Miridae: Mirinae) in the light of the male internal reproductive system
Figure 5. Male reproductive system of a representative of Mirini, Adelphocoris seticornis: (A) diagram of male reproductive system; (B), (C) fragments of male reproductive system; total preparation, light microscopy (× 15). Fragments of cross sections through testis in speciesof Mirini: (D) Adelphocoris seticornis; (E) Calocoris affinis; (F) Lygus rugulipennis. Testicular follicles building the testis are visible. Hematoxylin + xylidine ponceau, light microscopy. t., testis; t.f., testicular follicles; v.d., vas deferens; v.s.d., distal seminal vesicle; g.l.e., external lateral gland; g.l.i., internal lateral gland; g.m.d., dorsal medial gland; b.e., ejaculatory bulb.
Figure 3 in The systematic position of the tribe Stenodemini (Heteroptera: Cimicomorpha: Miridae: Mirinae) in the light of the male internal reproductive system
Figure 3. Selected elements of the male reproductive system in representatives of Stenodemini. (A) Internal lateral gland of Megaloceroea recticornis, total preparation, light microscopy (× 20). Elements of the male reproductive system in species of Trigonotylus: (B) T. caelestialium, ectodermal glands, total preparation, light microscopy (× 60); (C) T. pulchellus, distal part of vas deferens, total preparation, light microscopy (× 30). v.s.p., proximal seminal vesicle; v.s.d., distal seminal vesicle; d.s., seminal duct; g.l.e., external lateral gland; g.l.i., internal lateral gland.
Figure 2 in The systematic position of the tribe Stenodemini (Heteroptera: Cimicomorpha: Miridae: Mirinae) in the light of the male internal reproductive system
Figure 2. Fragments of cross sections through the male reproductive system in selected representatives of Stenodemini. (A) Acetropis carinata, fragment of cross section through distal part of vasa deferentia and accessory glands. Cross section with mesodermal glands, ectodermal
Figure 4 in The systematic position of the tribe Stenodemini (Heteroptera: Cimicomorpha: Miridae: Mirinae) in the light of the male internal reproductive system
Figure 4. Selected elements of the male reproductive system in representatives of Stenodemini. Male reproductive system of Myrmecoris gracilis: (A) diagram of the male reproductive system; (B) total preparation, light microscopy (× 40); (C) distal part of vas deferens, total preparation, light microscopy (× 40). Male reproductive system of Notostira elongata: (D) internal lateral gland, total preparation, light microscopy (× 40); (E) diagram of the male reproductive system; (F) total preparation, light microscopy (× 40). t., testis; v.d., vas deferens; v.s.p., proximal seminal vesicle; v.s.d., distal seminal vesicle; d.s., seminal duct; g.l.e., external lateral gland; g.l.i., internal lateral gland; b.e., ejaculatory bulb.
Figure 1 in The systematic position of the tribe Stenodemini (Heteroptera: Cimicomorpha: Miridae: Mirinae) in the light of the male internal reproductive system
Figure 1. Fragments of cross sections through the testis of Stenodemini species. (A) Acetropis carinata; (B) Dolichomiris linearis; (C) Leptopterna ferrugata; (D) Leptopterna dolabrata;
FIGURE 2. Xanthodius denticulatus. Zoea I. A in First zoeal stage of?Cataleptodius parvulus (Fabricius, 1793) and Xanthodius denticulatus (White, 1848) (Decapoda: Brachyura): larval evidences and systematic position
FIGURE 2. Xanthodius denticulatus. Zoea I. A, whole larva, lateral view; B, antennule; C, antenna; D, mandible; E, maxillule; F, maxilla; G. first maxilliped; H, second maxilliped; I. abdomen.
FIGS 9 in The water mite Rutripalpus limicola Sokolow, 1934: new data on morphology and biology, and considerations on the systematic position of the monotypic family Rutripalpidae (Acari, Hydrachnidia)
FIGS 9±11. Rutripalpus limicola male. (9) Pedipalp medial view; (10) P-5 anterior view; (11) gnathosoma lateral view. Bar 5 100 mm.
FIGS 30 in The water mite Rutripalpus limicola Sokolow, 1934: new data on morphology and biology, and considerations on the systematic position of the monotypic family Rutripalpidae (Acari, Hydrachnidia)
FIGS 30±33. Rutripalpus limicola larva. (30) I-L; (31) II-L; (32) III-L; (33) empodium and claws. Bars 5 100 mm (30±32), 50 mm (33).
FIGS 22 in The water mite Rutripalpus limicola Sokolow, 1934: new data on morphology and biology, and considerations on the systematic position of the monotypic family Rutripalpidae (Acari, Hydrachnidia)
FIGS 22±24. Rutripalpus limicola deutonymph. (22) Idiosoma, ventral view; (23) pedipalp, lateral view; (24) genital ®eld. Bars 5 50 mm.
FIGS 3 in The water mite Rutripalpus limicola Sokolow, 1934: new data on morphology and biology, and considerations on the systematic position of the monotypic family Rutripalpidae (Acari, Hydrachnidia)
FIGS 3±8. Rutripalpus limicola male, legs. (3) I-L; (4) II-L; (5) III-L; (6) IV-L; (7) III-L, claws; (8) IV-L, claws. Bars 5 100 mm.
FIGS 25 in The water mite Rutripalpus limicola Sokolow, 1934: new data on morphology and biology, and considerations on the systematic position of the monotypic family Rutripalpidae (Acari, Hydrachnidia)
FIGS 25±29. Rutripalpus limicola larva. (25) Idiosoma, ventral view; (26) idiosoma, dorsal view; (27) lateral eyes; (28) urstigma; (29) excretory plate. Bars 5 100 mm (25, 26), 50 mm (27± 29).
ScienceDex guides
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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.