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Figure 2. After 21 in Predation on eggs of Schneider's dwarf caiman, Paleosuchus trigonatus (Schneider, 1807), by armadillos and other predators
Figure 2. After 21 days, (A) a giant armadillo returns to the same nest and is driven away by an adult Paleosuchus trigonatus. After (B) remaining face to face with the caiman, (C, D) the armadillo departs, circling the nest tree.
Figure 2 in Observations of multiple pelagic egg masses from small-sized jumbo squid (Dosidicus gigas) in the Gulf of California
Figure 2. (a) Distribution of ommastrephid egg mass diameters. Dosidicus gigas (small) are from the present study. Dosidicus gigas (large) is from Staaf et al. (2008). Illex illecebrosus are from Durward et al. (1980) and O'Dor and Balch (1985). Nototodarus gouldi are from O'Shea et al. (2004). Todarodes pacificus are from Bower and Sakurai (1996) and Puneeta et al. (2015). (b) 80-cm egg mass (30 May #1). (c) 122-cm egg mass (29 May #2).
Data from: Dynamics of diet-egg transfer of fatty acids in the teleost fish, red drum (Sciaenops ocellatus)
<p>Eggs of marine organisms are increasingly being recognized as important components of marine food webs. The degree to which egg fatty acid profiles reflect maternal diet fatty acid profiles, and therefore the value of fatty acids in eggs as trophic biomarkers, depends on the species' reproductive strategy and the extent of modification of ingested fatty acids. We measured the dynamics of transfer of recently ingested fatty acids to spawned eggs in a batch-spawning teleost, red drum (<em>Sciaenops ocellatus</em>). Results of 21 dietshift experiments, from which the fatty acid profiles of the diets and eggs were compared, showed that 15 of 27 fatty acids measured (one saturated, two monounsaturated and 12 polyunsaturated fatty acids) in eggs were correlated with their levels in the recent diet, and the rate of incorporation into eggs was proportional to the magnitude of the diet shift. Large shifts in diet might occur naturally during spawningmigrations or when prey communities vary over time. Results of this study indicate that fatty acids in red drum eggs can be useful for studying adult diet and exploring trophic linkages in marine systems.</p> <p>This article is part of the theme issue 'The next horizons for lipids as 'trophic biomarkers': evidence and significance of consumer modification of dietary fatty acids'.</p>
Figure 1 in Eggs, final-instar caterpillars and metamorphosis of Cyclosia macularia Guérin Méneville (Lepidoptera: Zygaenidae) from its larval host plant Baccaurea motleyana
Figure 1. (A) Final instar larva of Cyclosia macularia on Baccaurea motleyana leaf found in orchard (scale bar = 10 mm); (B) final instar larvae of C. macularia on B. motleyana leaf (scale bar = 10 mm); (C) turned black before it underwent pupation (scale bar = 10 mm).
Figure 11 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 11. Lasallegrion virescens, female. (a), head, dorsal; (b), head, frontal; (c), right hind leg, outer aspect; (d), mesosoma, dorsal (arrows indicate notauli in their posterior part); (e), mesoscutellum and propodeum, dorsal; (f), left fore wing, ventral.
Figure 10 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 10. (a), Lasallegrion koebelei, heteromorph male habitus, lateral; (b), syntype of P. holbeini, syn. n.; (c), syntype of P. metatarsum, syn. n.; (d), holotype of L. virescens.
Figure 8 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 8. Lasallegrion koebelei, female. (a), head, dorsal; (b), head, frontal; (c), lower face, detail; (d), mesosoma, dorsal (arrows indicate notauli in their posterior part); (e), right hind leg, outer aspect; (f), left fore wing, ventral.
Figure 5 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 5. Volume renders of the µ-CT scans of Lasallegrion gen. n.; (a), L. virescens, lateral; (b), L. koebelei, lateral. Midsagittal sections showing the inner anatomy. Scale bars: 0.5 mm.
Figure 4 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 4. The scatterplot of best ratios for separating L. koebelei and L. virescens based on the LDA ratio extractor.
Figure 1 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 1. Maximum likelihood tree. The tree was reconstructed based on COI of Lasallegrion koebelei and L. virescens using RaxML with 1000 bootstrap replications. Only support values ≥50 are shown.
Figure 12 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 12. Lasallegrion washingtoni, female. (a), head, dorsal; (b), head, frontal; (c), lower face, detail; (d), mesosoma, dorsal; (e), mesoscutellum and propodeum, dorsal; (f), left hind leg, outer aspect.
Figure 13 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 13. (a) – holotype of L. koebelei, lateral aspect; (b) – holotype of L. koebelei, dorsal aspect; (c) – holotype of L. washingtoni, lateral aspect; (d) – holotype of L. washingtoni, dorsal aspect.
Figure 7 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 7. Metepisternum, posteroventral, females. (a), Lasallegrion koebelei; (b), L. virescens; (c), L. washingtoni; (d), Podagrion idomene sp. gr.; (e), P. pachymerum; (f), Mantiphaga gongylusae Risbec.
Figure 9 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 9. Lasallegrion koebelei, intermediate (a – c, e, g, h, j), heteromorph (d, f, k) and homeomorph (i) male. (a), head, dorsal; (b), antenna, lateral; (c), head, frontal; (d), left midtibia and midtarsus, outer aspect; (e), right hind leg, outer aspect, intermediate male; (f), right hind leg, outer aspect, heteromorph male; (g), mesoscutellum and propodeum, dorsal; (h), part of propodeum and petiolus, dorsolateral; (i), propodeum and petiolus, dorsal; (j), propodeum and petiolus, dorsal; (k), propodeum and petiolus, dorsal.
Figure 3 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 3. Shape PCA of L. koebelei and L. virescens. The scatterplot shows isosize versus shape PC1.
Figure 6 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 6. Diagnostic characters of Lasallegrion gen. n.; L. koebelei (a – e), L. washingtoni (f). (a), habitus, lateral; (b), antenna, lateral; (c), head and mesosoma, lateral (arrows indicate pronotal collar carina and metapleuron); (d), propodeum, dorsal; (e), head, posterior; (f), petiolus and first sternite, ventral.
Figure 2 in Data-rich description of a new genus of praying mantid egg parasitoids, Lasallegrion gen. n. (Hymenoptera: Torymidae: Podagrionini), with a re-examination of Podagrion species of Australia and New Caledonia
Figure 2. Map of collection sites. Red – Lasallegrion koebelei; green – L. virescens; blue – L. washingtoni (MyMaps by google).
Hen Egg White Lysozyme by Native S-SAD at Room Temperature
<p>Intermediate processing results used to solve a structure of hen egg white lysozyme by native S-SAD at room temperature. </p>
Figure 3 in Mites associated with egg masses of the viburnum leaf beetle Pyrrhalta viburni (Paykull) on Viburnum tinus L.
Figure 3 Timing of mite infestation experiment 2017. (a) abundance and (b) diversity of mites found on V. tinus twigs depending on the number of intactP. viburni egg masses present on the twigs (mean ± SE). Data are pooled in three categories: twigs with 0 to 4 intact egg masses (n = 81), twigs with 5 to 9 intact egg masses (n = 13), and twigs with ≥ 10 intact egg masses (n = 8); (c) abundance of mites found onV. tinus twigs depending on the number of damagedP. viburni egg masses present on the twigs. Data are pooled in three categories: twigs with 0 to 4 damaged egg masses (n = 62), twigs with 5 to 9 damaged egg masses (n = 24), and twigs with ≥ 10 damaged egg masses (n = 16).
Figure 2 Observational study 2016 in Mites associated with egg masses of the viburnum leaf beetle Pyrrhalta viburni (Paykull) on Viburnum tinus L.
Figure 2 Observational study 2016. (a) abundance and (b) diversity of mites foundV. tinus on twigs depending onP. viburni infestation: twigs
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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.