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9,671 results for “Leaf”
Figure 2. Leaf excisions and a in Morphological phylogeny of Megachilini and the evolution of leaf-cutter behavior in bees (Hymenoptera: Megachilidae)
Figure 2. Leaf excisions and a sampling of the morphological diversity among the female mandible of leaf-cutter bees. A. Leaves of Rosa sp. (Rosaceae) from Lesvos, Greece. B. Fossil leaf cut (Fabaceae) from Eckfeld Maar, Germany (~43 Ma). C–J. Outer view of the mandible showing interdental laminae in green (odontogenic) and pink (ctenogenic). C. Megachile (Chrysosarus) parsonsiae Schrottky. D. M. (Rhyssomegachile) simillima Smith. E. M. (Pseudocentron) pruina Smith. F. M. (Zonomegachile) sp. G. M. (Moureapis) maculata Smith. H. M. (Melanosarus) xylocopoides Smith. I. M. (Acentron) albitarsis Cresson. J. M. (Leptorachis) petulans Cresson. Abbreviations: Mt = mandibular tooth.
Figure 13 in Morphological phylogeny of Megachilini and the evolution of leaf-cutter behavior in bees (Hymenoptera: Megachilidae)
Figure 13. Female mandible of leaf-cutter ants and extinct Baltic amber megachilids. A–C. Right mandible of leaf-cutter ant (Formicidae: Attini: Atta sp.) in frontal, lateral, and inner views, respectively. Arrow points to the lower margin. D–G. Synchrotron-radiation µCT scan of Glyptapis sp. (Glyptapini) from Eocene Baltic amber; facial view of the head and right mandible in outer, superior, and inner views, respectively [note that the scan resolution could not resolve the finest setae, such as those of the compound eyes which are present in this specimen as in all species of Glyptapis Cockerell (Engel, 2001)].
Figure 3 in Morphological phylogeny of Megachilini and the evolution of leaf-cutter behavior in bees (Hymenoptera: Megachilidae)
Figure 3. Female mandible of Megachile Latreille s.l. in outer (A, E, G), frontal (D), and inner views (B, C, F, H). A. Megachile (Callomegachile) pluto Smith. B. M. (Callomegachile) sp. C–E. M. (Chelostomoda) spissula Cockerell. F. M. (Rhyssomegachile) simillima Smith. G. M. (Creightonella) frontalis (Fabricius). H. M. (Pseudocentron) pruina Smith. Interdental laminae highlighted in green (odontogenic) and pink (ctenogenic). Abbreviations: CR = corono-radicular ridge; AP = adductor apical ridge.
Figure 5 in Morphological phylogeny of Megachilini and the evolution of leaf-cutter behavior in bees (Hymenoptera: Megachilidae)
Figure 5. Some male morphological features used in the phylogenetic analysis. A–C. Ventral projection of mandible. D–F. Dorsal (left half) and ventral (right half) views of sixth tergum. G–I. Dorsal view of seventh tergum. J. Ventral view of sixth sternum. K–M. Ventral view of eighth sternum. N–P. Dorsal view of genital capsule. Q, R. Profile view of genital capsule. S. Apex of penis valves. Taxa: Megachile (Acentron) albitarsis Cresson (A, L); M. (Callomegachile) biseta Vachal (B); M. (Maximegachile) maxillosa Guérin-Méneville (C); M. (Argyropile) longuisetosa Gonzalez & Griswold (D, G); M. (Grosapis) cockerelli (E, H, R); M. (Creightonella) cognata Smith (F, I); M. (Zonomegachile) moderata Smith (J, K); M. (Largella) donbakeri Gonzalez & Engel (M); M. (Austromegachile) montezuma Cresson (N); M. (M.) centuncularis (Linnaeus) (O); M. (Moureapis) maculata Smith (P); M. (Chalicodoma) parietina (Geoffroy) (Q); M. (Chalicodoma) sicula (Rossi) (S).
Figure 1 in Comparative evaluation of taxonomic and functional diversities of leaf-litter ants of the Brazilian Atlantic Forest
Figure 1. Map of the study area in the state of Bahia (A), Brazil (B), showing the locations of the 65 Atlantic Forest sites (C).
Figure 3 in Comparative evaluation of taxonomic and functional diversities of leaf-litter ants of the Brazilian Atlantic Forest
Figure 3. Relationship between number of functional groups (classifications A: FC-A and B: FC-B) with ant richness in 65 localities of the Atlantic Forest biome in Bahia state, Brazil. Appendix 1. List of ant species registered in 26 municipalities and 65 localities of Atlantic Forest in Bahia state, Brazil. Municipalities: A–Z; number in parentheses represents the number of locations sampled by municipality.
Figure 2 in Comparative evaluation of taxonomic and functional diversities of leaf-litter ants of the Brazilian Atlantic Forest
Figure 2. Species accumulation curves based on the number of ant species (observed richness) sampled in different localities of the Brazilian Atlantic Forest. Filled circle = all data; filled diamond = all data except singletons and doubletons; unfilled circle = singletons and doubletons only.
Figure 1 in Review of leaf beetles of the family Megalopodidae (Coleoptera: Chrysomeloidea) from Siberia and the Russian Far East
Figure 1. Zeugophora spp.: A–B. Z. annulata, habitus, dorsal view; C. Z. bicolor, habitus, dorsal view; D. Z. bicolor, habitus, ventral view; E. Z. bicolor, aedeagus, apex of median lobe, dorsal view; F. Z. nigricollis, habitus, dorsal view; G. Z. nigricollis, habitus, ventral view; H. Z. nigricollis, aedeagus, apex of median lobe, dorsal view; I, J, K. Z. bimaculata, habitus, dorsal view; L. Z. bimaculata, aedeagus, lateral view; M. Z. bimaculata, aedeagus, apex of median lobe, dorsal view; N. Z. cupka, habitus, dorsal view; O. Z. hozumii, dorsal view; P. Z. subspinosa, dorsal view.
Figure 2 in Review of leaf beetles of the family Megalopodidae (Coleoptera: Chrysomeloidea) from Siberia and the Russian Far East
Figure 2. Zeugophora spp., habitus, dorsal view: A – Z. flavicollis; B – Z. frontalis; C – Z. subspinosa; D – Z. turneri. Scale bar = 0.5 mm for D.
Fig. 1 in First report of invasive South American tomato leaf miner Tuta absoluta (Meyrick) (Lepidoptera: Gelechiidae) in Tajikistan
Fig. 1. Damage (%) of Tuta absoluta on tomato in Tajikistan during Mar to Aug 2016. (A) Dukoni Jamoat, (B) Hissor Jamoat, (C) Guliston Jamoat, (D) Ghayrat Jamoat.
Fig. 2 in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 2. Olfactometer model used in the experiment of ant responses to healthy or unhealthy fungus in the Y-shaped choice system.
Fig. 2 in Seasonal parasitism of the leaf-cutting ant Atta sexdens Linnaeus (Hymenoptera: Formicidae) by phorid flies (Diptera: Phoridae) in a Brazilian Cerrado-Atlantic Forest ecotone
Fig. 2. Correlation between temperature and the number of leaf-cutting ants Atta sexdens parasitized by Apocephalus attophilus (r = −0.722; df = 9; P <0.05).
Fig. 1 in Seasonal parasitism of the leaf-cutting ant Atta sexdens Linnaeus (Hymenoptera: Formicidae) by phorid flies (Diptera: Phoridae) in a Brazilian Cerrado-Atlantic Forest ecotone
Fig. 1. Number of leaf-cutting ants Atta sexdens parasitized by Apocephalus attophilus and Eibesfeldtphora tonhascai in a Brazilian Cerrado-Atlantic Forest ecotone. The seasons are as follows: spring (Sep–Nov), summer (Dec–Feb), fall (Mar–May), and winter (Jun–Aug).
Fig. 4. A in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 4. A: Mean percent area and standard deviation (confidence interval) of volatiles emited by the fungus; B: healthy fungus and fungus with cycloheximide for 7 d; C: healthy fungus and fungus with cycloheximide for 14 d.
Fig. 1. Fungus garden. A in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 1. Fungus garden. A: Fungus healthy; B: fungus with incorporation of pellets with cycloheximide on d 7 of the experiment; and C: fungus on d 14 of the experiment.
Fig. 6 in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 6. Means and confidence interval of disks transported containing healthy and unhealthy fungus extract into the colony.
Fig. 5 in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 5. Percent and confidence interval of ant choice in the Y-shaped choice system. A: Chamber with healthy fungus and chamber without fungus; B: chamber with healthy fungus and chamber without healthy fungus; C: chamber containing fungus with cycloheximide for 7 d and chamber without fungus; D: chamber with healthy fungus and chamber containing fungus with cycloheximide for 7 d; E: chamber containing fungus with cycloheximide for 14 d and chamber without fungus; F: chamber with healthy fungus and chamber containing fungus with cycloheximide for 14 d.
Fig. 3 in A volatile semiochemical released by the fungus garden of leaf-cutting ants
Fig. 3. Volatiles emited by the fungus. A: Healthy fungus; B: fungus without cycloheximide for 7 d; C: fungus without cycloheximide for 14 d; D: fungus with cycloheximide for 7 d; E: fungus with cycloheximide for 14 d.
Fig. 2 in Geographical and elevational distributions of the Black-breasted Leaf Turtle, Geoemyda spengleri (Gmelin, 1789) (Testudines: Geoemydidae)
Fig. 2. Relationship between elevation and latitude of reliable Geoemyda spengleri occurrences with low positional error (n = 33).
Fig. 1 in Geographical and elevational distributions of the Black-breasted Leaf Turtle, Geoemyda spengleri (Gmelin, 1789) (Testudines: Geoemydidae)
Fig. 1. Geographical distribution of Geoemyda spengleri based on hydrologic unit compartments (Level 10 HUCs). Positions of the reliable occurrences (n = 77) are approximate, as the coordinates were generalized by rounding (see text for details). Multiple symbols may overlap and appear as a single point. Not all localities are shown to protect particularly sensitive populations. Inset: Adult male Geoemyda spengleri from Guangxi Autonomous Region, China. Photo by Jeffrey E. Dawson.
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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.