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28 results for “larval case”
Figure 3 in Endemic spring snails Terrestribythinella (Mollusca) as unusual material for larval case of Crunoecia irrorata (Trichoptera: Lepidostomatidae) in Transcarpathian Ukraine
Figure 3. Habitat of Crunoeсia irrorata (Curtis, 1834) larva with unusual case in Transcarpathia (Zakarpattia oblast), Ukraine: A, C, D – small stream near the tourist point "Sokolyne Berdo", Kuziy ravine, Rakhiv district, spring (May 13, 2017), B – the same locality, autumn (November 06, 2017).
Fig. 6.- Anthrenus angustefasciatus final larval instar case. 6a in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 6.- Anthrenus angustefasciatus final larval instar case. 6a.- Dorsal aspect (scale bar = 1 mm). 6b.- Lateral aspect (scale bar = 1 mm). 6c.- Head capsule (scale bar = 1 mm). 6d.- Arrow-headed hastisetae on terminal segments (scale bar = 100 µm).
Fig. 5.- Anthrenus amandae final larval instar case. 5a in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 5.- Anthrenus amandae final larval instar case. 5a.– Dorsal aspect (scale bar = 1 mm). 5b.- Lateral aspect (scale bar = 1 mm). 5c.- Head capsule (scale bar = 1 mm). 5d.- Arrow-headed hastisetae on terminal segments (scale bar = 100 µm).
Fig. 7.- Anthrenus isabellinus final larval instar case. 7a in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 7.- Anthrenus isabellinus final larval instar case. 7a.- Dorsal aspect (scale bar = 1 mm). 7b.- Lateral aspect (scale bar = 1 mm). 7c.- Head capsule (scale bar = 1 mm). 7d.- Arrow-headed hastisetae on terminal segments (scale bar = 100 µm).
Fig. 4.- Anthrenus amandae. 4a in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 4.- Anthrenus amandae. 4a.– Quiescent in final larval instar case. 4b.– Rotation in final larval instar case to split sutures in head capsule to facilitate eclosion. Scale bars = 1 mm in both cases.
Fig. 1.- Dorsal aspect. 1a.- Anthrenus amandae. 1b.- Anthrenus angustefasciatus. 1c in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 1.- Dorsal aspect. 1a.- Anthrenus amandae. 1b.- Anthrenus angustefasciatus. 1c.- Anthrenus isabellinus. Scale bar = 1 mm in all cases.
Figure 1 in Endemic spring snails Terrestribythinella (Mollusca) as unusual material for larval case of Crunoecia irrorata (Trichoptera: Lepidostomatidae) in Transcarpathian Ukraine
Figure 1. Map showing the locality of Crunoeсia irrorata larva sampling.
Fig. 2 in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 2.- Location of collection sites, Mallorca, May 2023.
Fig. 3 in Behavioural and feeding observations of some Anthrenus Geoffroy, 1767 species (Coleoptera, Dermestidae) and identification using final larval instar cases
Fig. 3.- Anthrenus angustefasciatus on Cistus monspeliensis, Alcanada, Mallorca.
FIGURE 16. Phylloicus passulatus Prather 2003, larval case. 16a–16c in Immature stages of three species and new records of five species of Phylloicus Müller (Trichoptera, Calamoceratidae) in the northern region of Brazil
FIGURE 16. Phylloicus passulatus Prather 2003, larval case. 16a–16c, ventral, right lateral and anterior, respectively (scale bar = 2 mm).
FIGURE 4. Phylloicus amazonas Prather 2003, larval case. 4a–4c in Immature stages of three species and new records of five species of Phylloicus Müller (Trichoptera, Calamoceratidae) in the northern region of Brazil
FIGURE 4. Phylloicus amazonas Prather 2003, larval case. 4a–4c, ventral, left lateral, and anterior, respectively (scale bar = 4 mm); 4d, case partially built with plastic material (marking tape).
FIGURES 2–3. Larval cases. 2 in Revision of the genus Culoptila (Trichoptera: Glossosomatidae)
FIGURES 2–3. Larval cases. 2—Culoptila moselyi Denning, Arizona, U.S.A. 3—Culoptila unispina, new species, Río Cotón, Puntarenas Province, Costa Rica.
FIGURES 28–42. Trichoptera larval cases. 28 in Order Trichoptera Kirby, 1813 (Insecta), Caddisflies *
FIGURES 28–42. Trichoptera larval cases. 28–Culoptila moselyi (Glossosomatidae); 29–Culoptila unispina (Glossosomatidae); 30–Dibusa angata (Hydroptilidae); 31–Helicopsyche borealis (Helicopsychidae); 32–Goera fuscula (Goeridae); 33–Triaenodes tardus (Leptoceridae); 34–Discosmoecus sp. (Limnephilidae); 35–Setodes incertus (Leptoceridae); 36–Sphagnophylax meiops (Limnephilidae); 37–Grumicha grumicha (Sericostomatidae); 38–Banksiola dossauria (Phryganeidae); 39–Leptocerus americanus (Leptoceridae); 40–Phanocelia canadensis (Limnephilidae); 41– Lepania cascada (Goeridae); 42–Anabolia bimaculata (Limnephilidae).
FIGURES 23–24. Antillophanes cubensis larval cases and host fungi. 23 in Antillopsyche sessilis, new genus and species, a new Psychidae (Lepidoptera: Tineoidea) from Cuba with an unusual larval feeding behavior
FIGURES 23–24. Antillophanes cubensis larval cases and host fungi. 23—Larval cases feeding on Trametes villosa (Polyporaceae). 24—Larvae within their cases feeding on Phylloporia pectinata (Hymenochaetaceae).
Figure 5 in Coding characters from different life stages for phylogenetic reconstruction: a case study on dragonfly adults and larvae, including a description of the larval head anatomy of Epiophlebia superstes (Odonata: Epiophlebiidae)
Figure 5. The single most-parsimonious trees from the TNT analyses: A, matrix AC (artificial coding; tree length, L = 113; consistency index, CI = 79; retention index, RI = 77); B, matrix NMC, applying non-multistate coding and preferring the adult character state over the larval state in the case of character state conflict (L = 89; CI = 88; RI = 83); C, matrix MC, applying a multistate coding strategy in cases of conflict between larval and adult morphology (L = 57; CI = 91; RI = 85); D, matrix SC, coding larval and adult characters seperately within the same taxon (L = 159; CI = 88; RI = 82). Non-homoplasious character changes are indicat- ed with black squares; homoplasious characters are indicated with white squares. Trait numbers are indicated above squares, state changes below. The 'M' below the character state changes in (C) indicates a multistate character optimized as an autapomorphy. For trait references, see Table S1 and Table S6; for detailed trees, see Figure S7.
Figure 4 in Coding characters from different life stages for phylogenetic reconstruction: a case study on dragonfly adults and larvae, including a description of the larval head anatomy of Epiophlebia superstes (Odonata: Epiophlebiidae)
Figure 4. SEM micrographs and three-dimensional reconstructions of the maxillae, labium, and hypopharynx of Epiophlebia superstes. A, ventral view of the maxilla, scale bar: 1 mm. B, ventral view of the maxilla, with musculature shown. C, dorsal view of the maxilla. D, dorsal view of the maxilla, with musculature shown. E, labium in dorsal view. Scale bar: 1 mm. E1, detail of the apical area of the labium. Scale bar: 500 μm. E2, detail of E1. Scale bar: 5 μm. F, musculature of the labium and hypopharynx in dorsolateral view. G, musculature of the labium and hypopharynx in lateral view. Abbreviations: ca, cardo; dse, dentisetae; eh, end hook; hyp, hypopharnyx; inc, incisivi; lac, lacinia; lp, labial palpus; mh, moveable hook; ml, median lobe; mp, maxillar palpus; pm, postmentum; prm, prementum; set, setae; st, stipes; trod, T-shaped cuticular rod. For muscle references see text and Table S2.
Figure 2 in Coding characters from different life stages for phylogenetic reconstruction: a case study on dragonfly adults and larvae, including a description of the larval head anatomy of Epiophlebia superstes (Odonata: Epiophlebiidae)
Figure 2. Overview of the outer head anatomy of Epiophlebia superstes: A, ventral view with the right part displayed as a three-dimensional reconstruction in order to show the peculiar muscle arrangement of the labial prehensile mask; B, lateral view; C, frontal view; D, dorsal view. Abbreviations: acl, anteclypeus; agp, anterior genal process; antb, antennal base; cl, cleavage line; cr0lb1 + 2, cranial origin of labral muscles 0lb1 and 0lb2; cr0lb5, cranial origin of labral muscle 0lb5; cr0te3, cranial origin of tentorial muscle 0te3; e, eye; fl, flagellum; fr, frons; lbr, labrum; loc, lateral occellus; lp, labial palpus; moc, middle occellus; oc, occiput; ocr, occipital ridge; pcl, postclypeus; pe, pedicellus; prm, prementum; sc, scapus. For muscle references, see text and Table S2. Scale bar: 1 mm.
Figure 1 in Coding characters from different life stages for phylogenetic reconstruction: a case study on dragonfly adults and larvae, including a description of the larval head anatomy of Epiophlebia superstes (Odonata: Epiophlebiidae)
Figure 1. Methodological workflow. In three matrices (AC, NMC, and MC) the full data set of 81 characters was used. The matrices differ in coding strategies. In matrix AC the larvae were coded as independent terminal taxa. In matrix NMC the larvae were omitted, thereby reducing the number of taxa from nine to six. If larval character states differed from adult ones, the character state of the adult was coded (non-multistate approach). In matrix MC we equally incorporated the larval character states into the adult character states, but in cases where larva possess a different character state than the adult these characters were coded as multistate characters. In matrix SC (separate coding) we coded larval and adult characters as separate characters within the same species, which resulted in a higher number of characters. If characters generated by the SC approach showed no variation they were omitted from the analysis, which is why not exactly twice as many characters as in matrices AC and MC are used.
Figure 3 in Coding characters from different life stages for phylogenetic reconstruction: a case study on dragonfly adults and larvae, including a description of the larval head anatomy of Epiophlebia superstes (Odonata: Epiophlebiidae)
Figure 3. SEM micrographs of the outer and three-dimensional reconstructions of the inner anatomy of Epiophlebia superstes. Ventral (A) and dorsolateral (B) view of the mandible (A1, detail of the ventral region of the mandible; B1, detail of the region at the molar base). C, the labral, antennal, tentorial, and pharyngeal musculature in dorsal view. D, the mandibular muscles in dorsofrontal view (D1, same as D in dorsolateral view). E, epipharynx in posterior view (E1, detail of e). F, the labral, antennal, tentorial, and pharyngeal musculature in lateral view. Brain, 0an2, 0lb1, 0bu2, and 0hy2 omitted for clarity. Abbreviations: ata, anterior tentorial arms; br, brain; ct, corpotentorium; dta, dorsal tentorial arms; inc, incisivi; lbr, labrum; le, lateral extension of labrum; mo, mola; pe, pedicellus; phx, pharynx; sc, scapus. For muscle references see text and Table S2. Scale bar: 100 μm.
FIGURE 3. Adicella cremisa larva and Case. 3A in Description of the larva of Adicella cremisa Malicky 1972 and a larval key to Central European species of Adicella McLachlan 1877 (Trichoptera: Leptoceridae)
FIGURE 3. Adicella cremisa larva and Case. 3A, head, thorax, and abdominal segment I, dorsal; 3B, head, thorax, and abdominal segment I, ventral; 3C, head, thorax, and abdominal segment I, right lateral [legs removed]; 3D, head, thorax, and abdominal segment I, right lateral [natural habitus]; 3E, abdominal segments VI–X, right lateral; 3F, abdominal segments VII– X, dorsal; 3G, Case, left lateral; 3H, right foreleg, anterior; 3I, right midleg, anterior; 3J, right hind leg, anterior.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.