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1,913 results for “Morphological characters”
Figure 10. General appearance. A in Sexually dimorphic characters and shared aposematic patterns mislead the morphology-based classification of the Lycini (Coleoptera: Lycidae)
Figure 10. General appearance. A, Lycus sp. 39. B, Lycus sp. 42. C, Lycus sp. 40. D–G, Lycus sp. 43. H, I, Lycus sp. 47. J, Lycus sp. 49. K–Q, Lycus sp. 51;. R, Lycus sp. (absent in the analysis). S, Lycus sp. 47, lateral view. T–AA, male genitalia. T, U, Lycus sp. 47. V, W, Lycus sp. 23. X, Y, Lycus sp. 40. Z, AA, Lycus sp. 51. Scale bars: 3 mm (A–S); 1 mm (T–AA).
Figure 9. General appearance. A, B in Sexually dimorphic characters and shared aposematic patterns mislead the morphology-based classification of the Lycini (Coleoptera: Lycidae)
Figure 9. General appearance. A, B, Lycus sp. 32. C, D, Lycus sp. 36. E, Lycus sp. 6. F, Lycus sp. 8. G, H, Lycus sp. 10. I, Lycus sp. 15 J, Lycus sp. 6. K, L, Lycus sp. 22. M–O, Lycus sp. 68. P–AM, male genitalia. P, Q, Lycus sp. 33. R, S, Lycus sp. 34. T, Lycus sp. 36. U, V, Lycus sp. 29. W, X, Lycus sp. 32. Y, Lycus sp. 5. Z, Lycus sp. 20. AA, Lycus sp. 21. AB, AC, Lycus sp. 15. AD, Lycus sp. 6. AE, Lycus sp. 22. AF, Lycus sp. 6. AG, Lycus sp. 9. AH, Lycus sp. 6. AI, AJ, Lycus sp. 49. AK, AL, Lycus sp. 68. AM, Lycus sp. 59. Scale bars: 3 mm (A–O); 1 mm (P–AM).
Figure 6 in Sexually dimorphic characters and shared aposematic patterns mislead the morphology-based classification of the Lycini (Coleoptera: Lycidae)
Figure 6. Lycus pallidus (F.), male unless stated otherwise. A, general appearance, ventral view. B, apical part of the rostrum, ventral view. C, antenna. D, head, dorsal view. E, prothorax and head, ventral view. F, pronotum, dorsal view. G, meso- and metasternum, ventral view; mesosternum. H, ventral view. I, mesothoracic spiracle with attached trachea. J, abdomen. K, abdomen of Neolycus fernandezi (Dugès), male. L, female terminal ventrite. M, female terminal tergite. N, terminal abdominal segments. O, male genitalia. P, ovipositor. Q, female internal genital duct. R, metatarsus. S, N.
Figure 1 in Sexually dimorphic characters and shared aposematic patterns mislead the morphology-based classification of the Lycini (Coleoptera: Lycidae)
Figure 1. The Lycini in nature. A, Lycus trabeatus from South Africa (photograph B. Dupont, CC BY-SA 2.0). B, Lycus sp. (photograph T. Rulkens, CC BY-SA 2.0). C, Lycus melanurus from Mozambique, (photograph T. Rulkens, CC BY-SA 2.0). D, Lycus sp., larva (photograph © Joyce Gross). E, Neolycus sp. (photograph CC BY-NC 4.0 California Academy of Sciences, San Francisco). F, Lycus sp. (photograph P. Erb, CC BY-NC 4.0).
FIGURE 21. Maximum parsimony 16S rRNA phylogram for the Boophis albipunctatus group. From 485 total characters, 391 were constant and 72 in Integrative taxonomy of Malagasy treefrogs: combination of molecular genetics, bioacoustics and comparative morphology reveals twelve additional species of Boophis 2383
FIGURE 21. Maximum parsimony 16S rRNA phylogram for the Boophis albipunctatus group. From 485 total characters, 391 were constant and 72 parsimony informative. MP searches retained 26 trees of which a strict consensus is shown. Consensus support values higher than 50, from 2000 bootstrap replicates, are shown; an asterisk indicates Bayesian posterior probabilities equal or higher than 95%. Species newly described herein are in bold.
FIGURE 16 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURE 16. Phylogenetic hypothesis for the species of Rhinusa based on morphological characters only. Characters are weighted using an iterative a posteriori weighting procedure. The diagram is a strict consensus tree derived from 14 shortest trees under the parsimony criterion. Numbers at the internodes show bootstrap support percentages (1000 pseudoreplicates).
FIGURE 19 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURE 19. Host plant preferences of extant species of Rhinusa and inferred evolutionary transitions of host associations mapped onto the strictly morphological equal-weights topology (cf. Fig. 14). The reconstruction suggests that Antirrhineae (Plantaginaceae) are the ancestral hosts for Rhinusa and that the switch to Scrophulariaceae evolved in a single step in the lineage of the R. bipustulata + R. tetra groups. A = Antirrhinum; C = Chaenorhinum; K = Kickxia; L = Linaria; Lo = Lotus L.; M = Misopates; P = Plantago L.; Sc = Scrophularia; Sa = Salix L.; V = Verbascum; Vn = Veronica L.
FIGURES 6–13 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURES 6–13. (6) Rhinusa collina, aedeagus in dorsal view; (7) R. collina, aedeagus in lateral view; (8) R. uncipes, aedeagus in lateral view; (9) R. vestita, aedeagus in dorsal view; (10) R. littorea, spiculum ventrale; (11) R. brondelii, spermatheca; (12) R. linariae, spermatheca; (13) R. asellus, spermatheca. Numbers indicate characters and states. Not drawn to the same scale.
FIGURE 17 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURE 17. One of 46 shortest trees for the species of Rhinusa derived from parsimony analysis of the morphological equal-weights matrix. Character (above) and state (below) distributions are mapped under unambiguous transformation. Black squares indicate unique transformed characters whereas white circles represent homoplasious characters.
FIGURE 15 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURE 15. Phylogenetic hypothesis for the species of Rhinusa based on the combined morphological and host plant information. All characters are equally weighted. The diagram is a strict consensus tree derived from 3128 optimal trees under the parsimony criterion. Numbers at the internodes show bootstrap support percentages (1000 pseudoreplicates).
FIGURE 14 in Phylogeny of the weevil genus Rhinusa Stephens based on adult morphological characters and host plant information (Coleoptera: Curculionidae)
FIGURE 14. Phylogenetic hypothesis for the species of Rhinusa based on morphological characters only. All characters are equally weighted. The diagram is a strict consensus tree derived from 46 optimal trees under the parsimony criterion. Numbers at the internodes show bootstrap support percentages (1000 pseudoreplicates).
Figure 37 Character 36 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 37 Character 36. Hind coxa lacking anterior carina (0); with narrow anterior carina (1). A, Protoclythia. B, Sciadocera. C, Javanoxenia. D, Phora. E, Apocephalus. F, Borophaga.
Figure 47 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 47 Strict consensus of the six most-parsimonious trees of equal weight analysis of the data matrix in Table 3. Only unambiguous characters are optimized. Character states 0 and 2 indicated, otherwise state = 1. Black circles correspond to characters with single origin in the analysis, open circles correspond to characters with more than one step in the analysis.
Figure 43 Character 43 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 43 Character 43. Anterior spiracle position below level of dorsal margin of anepisternum (0); anterior spiracle position above level of dorsal margin of anepisternum (1). A, Chonocephalus. B, Beckerina. C, Conicera. D, Neopleurophora. E, Thaumatoxena. F, Misotermes. Dashed white line = dorsal margin of anepisternum; dashed black line = position of anterior spiracle.
Figure 30 Character 26 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 30 Character 26. Hind coxa cylindrical, short (0); hind coxa flattened, broad (1). A, Lonchoptera. B, Chonocephalus. C, Javanoxenia. D, Beckerina. E, Latiborophaga. F, Borophaga.
Figure 29 Character 25 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 29 Character 25. Macrosetae simple (0); macrosetae feathered (1). A, Lonchoptera. B, Sciadocera. C, Termitophilomyia. D, Chonocephalus. E, Apocephalus. F, Godavaria.
Figure 26 Characters 19 and 37. Character 19 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 26 Characters 19 and 37. Character 19 (white arrow). Posterior spiracle (and base of halter) in a relatively ventral position in the thorax (dashed line for the anapleural suture and dotted line for the spiracle position) (0); posterior spiracle close to the wing base (1). Character 37 (black arrow). Halter large (0); halter reduced in size (1). A, Protoclythia. B, Sciadocera. C, Chonocephalus. D, Javanoxenia. E, Epicnemis. F, Godavaria.
Figure 24 Character 17 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 24 Character 17. Lateral parapsidal suture and lateral ridge of scutum straight, extended anteriorly over spiracle (0); lateral parapsidal suture stopping at or near spiracle (1); lateral parapsidal suture stopping well posterior of anterior spiracle (2). A, Sciadocera. B, Chonocephalus. C, Javanoxenia. D, Mallochphora. E, Burmophora. F, Stichillus.
Figure 31 Character 26 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 31 Character 26. Hind femur cylindrical (0); hind femur posteriorly flattened (1). A, Sciadocera. B, Chonocephalus. C, Javanoxenia. D, Beckerina. E, Conicera. F, Neopleurophora.
Figure 21 Character 14 in New morphological characters for classifying Phoridae (Diptera) from the structure of the thorax
Figure 21 Character 14. Katepisternum covered with microtrichia (0); katepisternum mostly bare (1). A, Lonchoptera. B, Chonocephalus. C, Termitophilomyia. D, Chaetopleurophora. E, Gymnophora. F, Borophaga.
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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