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140 results for “bee behavior”
Figs. 11–15 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 11–15. SEM micrographs of first larval instar of Coelioxys coturnix. 11. Head, covered by chorion, biting egg of Megachile minutissima, frontolateral view. 12. Close-up of front of head, showing micropylar sculpturing of chorion. 13. Head of larva, now removed from host egg, showing mouthparts, near lateral view. 14. Same, approximate ventral view. 15. Mouthparts, with egg chorion and lateral part of parietal now removed, approximate frontal view.
Figs. 4–8 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 4–8. Macrophotographs of live eggs and early instars of Coelioxys coturnix and eggs of its host, Megachile minutissima. 4. Egg of C. coturnix on host egg. 5. Shrouded first instar of C. coturnix feeding on partly depleted egg of host. 6. Live egg of C. coturnix with its posterior end slightly submerged in provisions and positioned slightly diagonally on host egg; note second egg of C. coturnix removed from host egg and resting in provisions. 7. Egg of C. coturnix attached to host egg, both resting on their sides. 8. Live first instar of C. coturnix feeding on host egg with large egg of Sapyga luteomaculata, ready to eclose, nearby on surface of provisions.
Figs. 23–26 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 23–26. SEM micrographs of third larval instar of Coelioxys coturnix. 23. Head, mostly frontal view. 24. Close-up of mouthparts, showing dorsal mandibular tooth larger than on previous instar and showing larger palpi than on previous instar. 25. Close-up of left antenna and anterior tentorial pit (as identified by rectangle, fig. 23), showing two sensilla. 26. Spiracle, abdominal segment 3, right side.
Figs. 9, 10 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 9, 10. SEM micrographs of second instar (identified by its mandible, as in fig. 20) of Coelioxys coturnix. 9. The somewhat flaccid egg of Megachile minutissima to which is attached the chorion and presumably first instar skin of C. coturnix. 10. Close-up of micropyle (identified by rectangle in fig. 9) matched with micropyle of mature oocyte (Rozen and Kamel, 2007: fig. 33).
Figs. 1–3 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 1–3. Trap-nest panels, Suez Canal University, Ismailia, Egypt. 1. Five panels deployed on campus. 2. Close-up of part of one panel showing nesting straws projecting from holes in painted foam plastic and a female of Coelioxys coturnix at one entrance. 3. Nest straw removed from panel and opened to expose leaflined cells of Megachile minutissima.
Figs. 27–29 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 27–29. SEM micrographs of fourth larval instar of Coelioxys coturnix. 27. Head, frontal view, showing enlarged dorsal mandibular teeth. 28. Same, ventral view, showing longer antennal papillae and palpi compared with earlier instars. 29. Close-up of left antenna with three sensilla and anterior tentorial pit (identified by rectangle in fig. 27).
Figs. 18–22 in Hospicidal Behavior of the Cleptoparasitic Bee Coelioxys (Allocoelioxys) coturnix, Including Descriptions of Its Larval Instars (Hymenoptera: Megachilidae)
Figs. 18–22. SEM micrographs of second instar of Coelioxys coturnix. 18. Head, frontolateral view; upper rectangle refers to fig. 19; lower rectangle refers to fig. 22. 19. Close-up of left antenna and anterior tentorial pit. 20. Close-up of mandible, showing small subapical dorsal tooth, and labral apex with apical row of pronounced, sensilla-bearing tubercles. 21. Base of right mandible, showing small tubercles on outer surface, and right maxilla. 22. Close-up of labiomaxillary region, showing labial palpi and left maxilla and palpus.
FIGURES 32–36 in Nest Site Selection and Nesting Behavior of the Bee Lithurgopsis apicalis (Megachilidae: Lithurginae)
FIGURES 32–36. Larvae of Lithurgopsis apicalis. 32. Cast head capsules of second and third instars attached to venter of fourth instar. 33. Early defecating fifth instar, showing slender body shape. 34. Intermediate-aged fifth instar demonstrating more tapered body shape. 35. Spinning fifth instar with fibrous cushion of feces and pollen intermeshed with silk. 36. Silken network that has been partly covered by thin film of clear silk (identified by arrow).
Figure 2 in Bombus impatiens (Hymenoptera: Apidae) display reduced pollen foraging behavior when marked with bee tags vs. paint
Figure 2. Curves showing the cumulative percentage of bees that performed sonication on Solanum lycopersicum L. after being marked with paint vs. bee tags, out of the total number of marked bees recovered by the end of the experiment (n paint = 83; n tag = 94; n missing = 34). The "+" symbols indicate censored data — bees that never were observed collecting pollen after being marked, within the time constraints of the experiment.
Data from: Seasonal shifts in thermoregulatory behavior of bumble bee queens
Open the record for dataset details and reuse information.
Data from: Isolating the effects of floral temperature on visitation and behavior of wild bee and fly pollinators
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The effect of Israeli acute paralysis infection on honey bee brood care behavior
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Figure 3 in Behavior notes and prey spectrum of three species of the bee-hunting wasp Trachypus Klug (Hymenoptera: Apoidea)
Figure 3. Trachypus taschenbergi biology. (A) female carrying a prey (Paratrigona subnuda drone) near the nest entrance. (B) female exiting the nest; (C-E) a female trying to enter an occupied nest and being expelled by a female that was inside the nest.
Figure 1 in Behavior notes and prey spectrum of three species of the bee-hunting wasp Trachypus Klug (Hymenoptera: Apoidea)
Figure 1. Study site. (A) Curitiba, Paraná, Brazil, (B) land cover (modified from Pereira et al., 2020), (C) original sampling sites (modified from Michener et al., 1958).
Figure 2 in Behavior notes and prey spectrum of three species of the bee-hunting wasp Trachypus Klug (Hymenoptera: Apoidea)
Figure 2. Rose diagrams for seasonal activities of (A) Trachypus elongatus and (B) Trachypus taschenbergi, considering the number of female observations per day of fieldwork. Months are treated as sectors of 30 degrees each, with January corresponding to 0 and December to 330.
Honey bee nurse behavior - HB2017 OH4
<p>Dataset of honey bee nurse behavior collected for:</p> <p><span> Charbonneau, Pekora, Scavetta, Harris, Smithson, Sheahan, Tarpy, Linksvayer, and Vojvodic Kruse, Submitted 2024, Honey bee nurse task allocation shows short, frequent cycles of nursing and resting interrupted by occasional bouts of eating in honey bees</span></p>
Algal growth, bumblebee colony and individual development, bee behavior and yield of oilseed rape under a trophic cascade and extreme weather
<p><span>Trophic cascades in the aquatic environment constitute important mechanisms for improving water quality. However, how the presence or non-presence of these trophic cascades may affect interactions across the aquatic-terrestrial interface remains poorly investigated. Pollinators such as bees may be especially vulnerable to changes in water resource quality induced by trophic cascades. Understanding how aquatic trophic cascades affect bees and pollination becomes even more pressing under ongoing climate change due to increased physiological demands for water under extreme weather events.</span><span>In a novel field experiment combining terrestrial and aquatic mesocosms, we aimed to test how changes in water quality induced by an aquatic trophic cascade </span><span>affected foraging and growth of bumblebee colonies as well as foraging of solitary bees. While we expected fish predation to reduce top-down control of zooplankton on phytoplankton and thereby, indirectly, induce increased growth of toxic cyanobacteria</span><span>, we instead found the trophic cascade to induce the formation of algal surface mats that bumblebees used to access water under a severe heat wave and drought. This access to water was associated with higher bumblebee colony reproductive success, growth and weight compared to control colonies with no trophic cascade induced (and hence no algal surface mats). We also found marginal </span><span>but non-significant</span><span> effects on oilseed rape yield, but surprisingly with higher yields in the control treatment where bumblebees could not access water.</span><span>Our results provide new insights on how aquatic trophic cascades can lead to unpredicted ecological interactions across the aquatic-terrestrial interface facilitated by climate change. Our study highlights the importance of water for the fitness of terrestrial ecosystem service providers under altered environmental conditions.</span></p>
Data: Thorax Vibration and Force Generation During Non-Flight Behaviors in Carpenter Bees (Xylocopa: Apidae): Implications for Floral Buzzing
<p>Interval data from the manuscript "Thorax Vibration and Force Generation During Non-Flight Behaviors in Carpenter Bees (<em>Xylocopa</em>: Apidae): Implications for Floral Buzzing "</p>
Biting behavior against Varroa mites in honey bees is associated with changes in mandibles
<p>raw data of the mite biting behavior, and parameters of mandibles for our manuscript "<span>Biting behavior against Varroa mites in honey bees is associated with changes in mandibles, with tracking by a new mobile application for mite damage identification</span>"</p>
Figure 9 in Behavior and nest architecture of the bee Caenohalictus alexandrei (Hymenoptera, Halictinae)
Figure 9. Pollinic resource used by C. alexandrei. (A-B) Taraxacum officinale: (A) Flower with adult female; (B) Pollen grains; (C-D) Bidens pilosa: (C) Flowers; (D) Pollen grains; (E-F) Senecio madagascariensis, (E) Flower with adult female; (F) Pollen grains. Scale: 100 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.