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FIGURE 2. Leaf glands. A in Taxonomy and reclassification of South African Asteraceae genus Elytropappus (Gnaphalieae, Asteraceae), the description of two new genera and two new species
FIGURE 2. Leaf glands. A. Dicerothamnus adpressus (Koekemoer 600); B. Dicerothamnus adpressus (Koekemoer 1235); C. Dicerothamnus rhinocerotis (Koekemoer 517); D. Elytropappus aridus (Koekemoer 611); E–F. Elytropappus hispidus (Cusson s.n.); G–H. Elytropappus monticola (Koekemoer 1135) I. Myrovernix glandulosus (Koekemoer 615); J–K. Myrovernix gnaphaloides (Koekemoer 1224); L–M. Myrovernix intricata (Koekemoer 577); N. Myrovernix longifolius (Koekemoer 1253); O. Myrovernix scaber (Koekemoer 1234a). Scale bar = 0.2 mm.
Figure 12. Slit-like cuticular pores representing epidermal gland openings. A, B in An extensive review of mutualistic and similar ecological associations involving tarantulas (Araneae: Theraphosidae), with a new hypothesis on the evolution of their hirsuteness
Figure 12. Slit-like cuticular pores representing epidermal gland openings. A, B. Ephebopus cyanognathus West and Marshall, 2000, palpal femur, with urticating setae and one gland opening (marked with an arrow). C, D. Exuvia of juvenile Ephebopus cyanognathus, abdomen. E. Psalmopoeus sp., dorsal side of metatarsus. F. Liphistius sp., a slit sensillum (large) and several gland openings (small, one marked with an arrow). Photo credits: Rainer Foelix. Scale bars: 0.01 mm.
FIGURES 101–102, 104, 107. Pheromone glands. 101 in Review of generic limits of the tiger moth genera Virbia Walker and Holomelina Herrich-Schäffer (Lepidoptera: Arctiidae: Arctiinae) and their biogeography
FIGURES 101–102, 104, 107. Pheromone glands. 101. Virbia (H.) aurantiaca, Pg = gland width thin; gland appearance membranous; branching before the tip of the anterior apophyses. 102. Virbia (H.) costata. Pg = gland width large; glands unbranched. 104. Virbia (H.) nigricans, dorsal view. Pg = pheromone gland, width extra large and branching after tip of anterior apophyses, PsPa = ovipositor opening with pseudopapillae anales. 107. Virbia inversia. Pg = pheromone glands, slightly sclerotized, 8t = eighth tergite, Pa = papillae anales.
FIGURE 2. A–K. Croton campanulatus. A. Flowering branch. B. acropetiolar gland. C. lepidote subentire trichomes. D. Pistillate flower. E. Gynoecium detail. F in Taxonomic revision of Croton section Cleodora (Euphorbiaceae)
FIGURE 2. A–K. Croton campanulatus. A. Flowering branch. B. acropetiolar gland. C. lepidote subentire trichomes. D. Pistillate flower. E. Gynoecium detail. F. Disk at the base of the gynoecium. G. Fruit. H. Seed. I. Staminate flower. J. Pistillate flower aestivation. K. Staminate flower aestivation. (Caruzo et al. 93; illustration from Caruzo et al. 2008).
FIGURE 7. Penis and accessory gland. A, D in Monograph of the Australian Bithyniidae (Caenogastropoda: Rissooidea)
FIGURE 7. Penis and accessory gland. A, D – Gabbia campicola, A, ventral view, C.332829, D, dorsal view, USNM, 803665; B – Gabbia rotunda, ventral view, AMS, C.400134; C – Gabbia davisi, ventral view, AMS, C.417617; E – Gabbia beecheyi, ventral view, AMS, C.332843; F, G – Gabbia fontana, dorsal view, AMS, C.380863; H – Gabbia spiralis, dorsal view, AMS, C.331849; I, J – Gabbia vertiginosa, dorsal view, AMS, C.203392, I, enlargement of distal end of accessory lobe; K – Gabbia adusta, dorsal view, AMS, C.203394. Scales: 500 m.
FIGURE 1A–D in New data on the evaporarium of the thoraco-abdominal gland in the family Tingidae sensu Carayon 1962 (Hemiptera: Heteroptera: Tingoidea)
FIGURE 1A–D. Evaporarium in Phatnomatinae. A Cnemiandrus typicus, B Microcader thai, C Ulmus testudineatus, D Plesionoma capeneri (evaporarium in a circle).
FIGURE 3A–D in New data on the evaporarium of the thoraco-abdominal gland in the family Tingidae sensu Carayon 1962 (Hemiptera: Heteroptera: Tingoidea)
FIGURE 3A–D. Evaporarium in Tinginae. A Tingis ampliata, B T. cardui, C Corythaica cyathicollis (evaporarium in a circle), D Phaenotropis cleopatra.
FIGURE 2A–D in New data on the evaporarium of the thoraco-abdominal gland in the family Tingidae sensu Carayon 1962 (Hemiptera: Heteroptera: Tingoidea)
FIGURE 2A–D. Evaporarium in Tinginae. A Acalypta musci, B A. parvula, C Dictyla humuli, D Derephysia foliacea (evaporarium in a circle).
Figure 4 in Chemical secretion and morpho-histology of the pygidial glands in two Palaearctic predatory ground beetle species: Carabus (Tomocarabus) convexus and C. (Procrustes) coriaceus (Coleoptera: Carabidae)
Figure 4. Histology of the pygidial apparatus of C. (T.) convexus: (a) cross section of glandular reservoir; (b) longitudinal (above) and cross (below) sections of secretory lobes; (c) cross section of reservoir's muscular wall. rl: reservoir lumen; mw: muscular wall; gcv: granular cell with vesicles; csm: cross section through muscle cells; lsm: longitudinal section through muscle cells; bm: basal membrane; epc: epicuticle; ep: epidermis. Scale bars = 100 µm.
Figure 1 in Chemical secretion and morpho-histology of the pygidial glands in two Palaearctic predatory ground beetle species: Carabus (Tomocarabus) convexus and C. (Procrustes) coriaceus (Coleoptera: Carabidae)
Figure 1. Habitus, dorsal view of a female: (a) Carabus (Tomocarabus) convexus; (b) C. (Procrustes) coriaceus. Scale bar = 1 cm.
Figure 2 in Chemical secretion and morpho-histology of the pygidial glands in two Palaearctic predatory ground beetle species: Carabus (Tomocarabus) convexus and C. (Procrustes) coriaceus (Coleoptera: Carabidae)
Figure 2. Identification of isolated carboxylic acids on the basis of gas chromatography-electron impact-mass spectrometry (GC-EI-MS) spectral data in C. (T.) convexus and C. (P.) coriaceus: (a) methacrylic acid; (b) tiglic acid; (c) benzoic acid. Head to tail orientation of EI-MS data obtained from collected pygidial secretion of both species (top) and NIST 11 library spectra (bottom). m/z: mass to charge ratio; RA: relative amount of compound.
Figure 5 in Chemical secretion and morpho-histology of the pygidial glands in two Palaearctic predatory ground beetle species: Carabus (Tomocarabus) convexus and C. (Procrustes) coriaceus (Coleoptera: Carabidae)
Figure 5. Histology of the pygidial apparatus of C. (P.) coriaceus: (a) cross section of glandular reservoir; (b) cross section of secretory lobes, with parts of a collecting canal; (c) cross section of reservoir's muscular wall. rl: reservoir lumen; mw: muscular wall; gcv: granular cell with vesicles; dc: duct-carrying cell; cc: collecting canal; cl: collecting lumen; csm: cross section through muscle cells; lsm: longitudinal section through muscle cells; bm: basal membrane; epc: epicuticle; ep: epidermis. Scale bars = 100 µm.
Figure 3 in Chemical secretion and morpho-histology of the pygidial glands in two Palaearctic predatory ground beetle species: Carabus (Tomocarabus) convexus and C. (Procrustes) coriaceus (Coleoptera: Carabidae)
Figure 3. Morphology of pygidial glands in the two studied ground beetle species: (a) generalised appearance of the entire (right) pygidial gland apparatus in Carabus spp.; (b) glandular reservoir of C. (P.) coriaceus; (c) juncture of collecting canal with reservoir near efferent duct in C. (P.) coriaceus; (d) aggregates of secretory lobes in C. (P.) coriaceus; (e) a pair of pygidial gland reservoirs of C. (T.) convexus. r: glandular reservoir; cc: collecting canal; sl: secretory lobes; ed: efferent duct. Scale bars = 1 mm.
FIG. 4 in Functional anatomy of male antennal glands in three species of Encyrtidae (Hymenoptera: Chalcidoidea)
FIG. 4. Asitus phragmitis male. (a) Cross section of A9 showing the glandular area (GA); (b) longitudinal section through the socket of a peg-like structure; (c) cross section of the proximal part of a peg, showing numerous pores (P) with the epicuticular ®laments (EF); (d, e) details of perinuclear region of secretory cells. G, Golgi apparatus; M, mitochondria; MV, microvilli; N, nucleus; RSS, release and spread site; SER, smooth endoplasmic reticulum; SV, secretory vesicles. Bars: a 5 10 mm, b 5 5 mm, c 5 0.5 mm, d 5 2 mm, e 5 0.5 mm.
FIG. 1 in Functional anatomy of male antennal glands in three species of Encyrtidae (Hymenoptera: Chalcidoidea)
FIG. 1. Leptomastix dactylopii male. (a) Lateral view of apical antennomere (A9) showing the release and spread site (RSS) of the gland consisting in a single row of socketed scale-like structures located on its ventral side; (b) detail of scales. Bars: a 5 100 mm, b 5 10 mm.
FIG. 6 in Functional anatomy of male antennal glands in three species of Encyrtidae (Hymenoptera: Chalcidoidea)
FIG. 6. Leptomastix dactylopii courtship behaviour. (a) First phase of pre-copulatory period; (b) second phase of pre-copulatory period.
FIG. 2 in Functional anatomy of male antennal glands in three species of Encyrtidae (Hymenoptera: Chalcidoidea)
FIG. 2. Rhopus meridionalis male. (a) Lateral view of left antenna; (b) lateral view of subapical antennomere (A8) showing the release and spread site (RSS) consisting in a single row of socketed scales located on its ventral side; (c) detail of a scale. Bars: a 5 100 mm, b 5 20 mm, c 5 2.5 mm.
FIGURE 24 in Structure and phylogenetic significance of the sternum V glands in Trichoptera 2884
FIGURE 24. SEMs of external structures. A, B: Brachycentrus occidentalis (Brachycentridae), male and female very similar. A: Female, hexagons with grooves in between covering sternum V. B: Male, gland opening connecting with grooves between hexagons. C, D: Phryganeidae. C: Yphria californica male, gland opening in bald, slightly raised area. Female similar, but bald area not raised. D: Agrypnia straminea male, gland opening in small bald area. E: Oeconesus maori (Oeconesidae) male, gland opening on bald thumb-shaped protuberance. F: Neophylax concinnus (Uenoidae) male, gland opening in small bald area, bald area larger in female. Go, gland opening. Scale bars: A, B, D, F = 10 µm; C, E = 100 µm.
FIGURE 22 in Structure and phylogenetic significance of the sternum V glands in Trichoptera 2884
FIGURE 22. SEMs of external structures. A–D: Hydrobiosidae. A–C: Apsilochorema segitiga female. A: Overview of gland opening, connecting groove and ventral protuberance with stout setae. B: Close-up of gland opening, note how the direction of the microtrichia would guide gland products towards the groove. C: Close-up of setae of ventral protuberance, note the wear on the setae, indicating that the protuberance is dragged along the substrate. D: Atopsyche callosa male, protuberance with gland opening. E, F: Rhyacophila arnaudi (Rhyacophilidae). E: Female, protuberance with gland opening and setae. F: Male, part of protuberance with gland opening and setae. Go, gland opening. Scale bars: A, E = 100 µm; B–D, F = 10 µm.
FIGURE 20 in Structure and phylogenetic significance of the sternum V glands in Trichoptera 2884
FIGURE 20. SEMs of external structures. A: Cyrnellus fraternus (Polycentropodidae) female, protuberance on sternum V, note the groove running from the gland opening to the apex. B–H: Hydropsychidae. B, C: Arctopsychinae. B: Arctopsyche grandis female, male very similar, gland opening on bald protuberance. C: Parapsyche elsis male, female very similar, gland opening on small bald protuberance. D–F: Leptonema albovirens (Macronematinae). D: Female. E: Male. Both: gland opening at anterior end of ovoid area of textured cuticle, area much larger in male. F: Male, close-up of textured cuticle. G, H: Hydropsychinae. G: Cheumatopsyche speciosa male, female very similar, gland opening on small bald bulge. H: Hydropsyche placoda male, female very similar, gland opening on bulge. Go, gland opening. Scale bars: A–D, F, H = 10 µm; E = 100 µm; G = 1 µm.
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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.