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1,533 results for “rearing”
Data from: Plasticity and the structural characteristics of personality traits in captive-reared Japanese quail during ontogeny
<p>This dataset contains the measurements of different personality traits in a study on Japanese quail.</p>
FIGURES 35–44. Puparia. 35–36 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 35–44. Puparia. 35–36. Blepharomyia brevicornis sp. nov. (paratype, Hokkaido, Japan). 37–38. Ctenophorinia grisea Mesnil (Hokkaido, Japan). 39–40. Cyzenis equifacialis sp. nov. (paratype, Hokkaido, Japan). 41–42. Cyzenis tetrasetosa sp. nov. (paratype, Hokkaido, Japan). 43.44. Eulasiona zimini Mesnil (Hokkaido, Japan). 35, 37, 39, 41, 43. Lateral view. 36, 38, 40, 44. Posterior apex in lateral or posterior view.
FIGURES 26–34 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 26–34. Adults of Ctenophorinia grisea Mesnil (Hokkaido, Japan), Blepharipa carbonata Mesnil (Hokkaido, Japan), Cyzenis spp. and Eulasiona zimini (Mesnil). 26. Ctenophorinia grisea Mesnil, habitus in lateral view. 27. Blepharipa carbonata Mesnil, habitus in dorsal view. 28–29. Cyzenis equifacialis sp. nov. (paratype male, Hokkaido, Japan). 28. Habitus in lateral view. 29. Male head in lateral view. 30–31. Cyzenis tetrasetosa sp. nov. (paratype male, Hokkaido, Japan). 30. Habitus in lateral view. 31. Head in lateral view. 32–34. Eulasiona zimini (Mesnil) (Hokkaido, Japan). 32. Female habitus in lateral view. 33. Female head in lateral view. 34. Male head in lateral view.
FIGURES 18–23 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 18–23. Male and female terminalia of Cyzenis tetrasetosa sp. nov. (paratypes, Hokkaido, Japan). 18. Male 5th sternite in ventral view (hairs omitted on left side). 19. Epandrium, cerci and surstylus in dorsal view (hairs omitted on epandrium and cerci). 20. Same in lateral view (hairs omitted on epandrium and cercus). 21. Hypandrium, pregonite, postgonite and phallus in lateral view. 22. Female terminalia in lateral view. 23. Same in ventral view (hairs omitted). Scale bars: 0.1 mm.
FIGURES 24–25 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 24–25. Female terminalia of Eulasiona zimini Mesnil (Hokkaido, Japan). 24. Lateral view. 25. Ventral view. Scale bars: 0.1 mm.
FIGURES 13–17 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 13–17. Male and female terminalia of Cyzenis equifacialis sp. nov. (paratypes, Hokkaido, Japan). 13. Epandrium, cerci and surstylus in dorsal view (hairs omitted on epandrium and cerci). 14. Same in lateral view (hairs omitted on epandrium and cercus). 15. Hypandrium, pregonite, postgonite and phallus in lateral view. 16. Female terminalia in lateral view. 17. Same in ventral view (hairs omitted). Scale bars: 0.1 mm.
FIGURES 1–6 in Tachinid flies (Diptera: Tachinidae) reared from deciduous plant-feeding lepidopteran larvae at Hokkaido University Tomakomai Forest (Japan), with descriptions of three new species
FIGURES 1–6. Adult males of Blepharomyia spp. 1, 3, 5. Habitus in lateral view. 2, 4, 6. Head in lateral view. 1–2. Blepharomyia brevicornis sp. nov. (paratype, Hokkaido, Japan). 3–4. Blepharomyia foliacea Mesnil (Hokkaido, Japan). 5–6. Blepharomyia pagana (Meigen) (Germany).
Cold tolerance of laboratory-reared Asian longhorned beetles
<p>Low winter temperatures in temperate climates can limit the success of non-native species. The Asian longhorned beetle, <i>Anoplophora glabripennis</i>, is an invasive wood-boring pest of hardwood trees in North America and Europe. Native<em> </em><i><em>A. gl</em>abripennis </i>populations are spread across several climate zones in China and the Korean Peninsula and are likely to encounter low temperatures in at least some of this range. Understanding the lethal limits of the overwintering life stages of <i>A. glabripennis</i> is essential for accurately modeling the risk that invasive populations pose to non-native environments. In this study, we provide the first systematic characterization of the cold tolerance strategy and lower lethal limits of <i>A. glabripennis </i>eggs, larvae, and pupae. In diapausing larvae, the most common overwintering stage in this species, we measure hemolymph glycerol and osmolality and identify the effects of prolonged low temperature exposure. In developing pupae, we identify sublethal effects caused by low temperature exposure before freezing. Eggs and larvae were the most cold-tolerant life stages; eggs were freeze-avoidant with an average supercooling point of -25.8 °C and larvae were freeze tolerant with an LT<sub>90</sub> of -25 °C. Hemolymph osmolality of freeze-tolerant larvae, on average, increased to 811 mOsm during chilling. This increase was primarily driven by a concurrent, average increase of 232 mM hemolymph glycerol. Pupae died upon exposure to freezing temperatures, but accumulate strong sublethal effects prior to freezing, indicating that they are chill susceptible. Taken together, these data will be useful to inform species distribution modeling in <i>A. glabripennis</i>.</p>
Mine Haul Truck Rear Dump Profiles
<p>3D CAD files from photogrammetrical surveys of dump and stockpile faces made by mine haul trucks</p>
Cold storage of Spodoptera litura eggs and Telenomus remus adults for improving mass-rearing efficiency
<p>This is the raw data of the performance of <em>Telenomus remus</em> adults after refrigeration and the its parasitism capacity on stored <em>Spodoptera litura</em> eggs.</p>
Kin recognition in Drosophila: Rearing environment and relatedness can modulate gut microbiota and cuticular hydrocarbon odour profiles
<p>From inbreeding avoidance to kin-selected cooperation, social behaviours are frequently reliant on kin recognition. However, kin recognition mechanisms are costly to evolve and currently not very well understood. Recent evidence suggests that, by altering their host's odour, gut and other host-associated microorganisms may provide a promising avenue for understanding kin recognition. In Drosophila melanogaster, kin recognition can mediate mate choice, sexual conflict and larval competition/cooperation, underscoring its important functional role. As is commonly the case, kin recognition in this species depends on both familiarity (i.e. shared rearing environment) and relatedness, and seems to rely mainly on body odours determined by cuticular hydrocarbons. Here, we investigated the degree to which larval rearing environment and relatedness (full-sibs vs. unrelated) determine co-variation between gut microbiota and cuticular hydrocarbons in D. melanogaster. We found that rearing environment strongly determined both microbiota and cuticular hydrocarbon composition, but that these effects were independent from each other. In contrast, relatedness did not influence microbiota composition, but had a strong influence on microbiota diversity, which in turn covaried significantly with cuticular hydrocarbon composition. Our results show that, in D. melanogaster, odours may convey information about both familiarity and relatedness via an interaction between: a) direct effects of the rearing environment on cuticular hydrocarbons and b) indirect effects of relatedness on cuticular hydrocarbons via gut microbiota diversity.</p>
FIGURE 7 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 7. Decapodite: A specimen lateral view; A' complete specimen lateral view; B antennule; C antenna; D mandibles; E maxillule; F maxilla; G first maxilliped; H second maxilliped; I third maxilliped; J first pereiopod; J' first pereiopod, detail of chelae; K second pereiopod; K' second pereiopod, detail of chelae; L third pereiopod; L' third pereiopod, detail of chelae; M fourth pereiopod; M' fourth pereiopod, detail of chelae; N fifth pereiopod; N' fifth pereiopod, detail of chelae; O first pleopod; P second pleopod; Q third pleopod; R fourth pleopod; S fifth pleopod; T telson; U uropods. Scale bars: 0.1mm.
FIGURE 6 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 6. Tenth zoea: A complete larvae lateral view; B rostrum and carapace denticles; C antennule; D antenna; E mandibles; F maxillule; G maxilla; H first maxilliped; I second maxilliped; J third maxilliped; K first pereiopod; L second pereiopod; M third pereiopod; N fourth pereiopod; O fifth pereiopod; P first pleopod; Q second pleopod; R third pleopod; S fourth pleopod; T fifth pleopod; U telson and uropods. Scale bars: 0.1mm.
FIGURE 4 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 4. Sixth zoea: A antennule; B mandibles; C third pereiopod; D fourth pereiopod; E uropods and telson. Seventh zoea: F larvae dorsal view; G maxillule; H maxilla. Scale bars: 0.1mm.
FIGURE 2 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 2. Second zoea: A complete larvae dorsal view; B antenna; C mandibles; D pleon lateral view; E first pereiopod; F fifth pereiopod. Third zoea: G antennule; H mandibles; I maxilla; J first pereiopod; K fifth pereiopod; L telson and uropods. Scale bars: 0.1mm.
FIGURE 1 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 1. First zoea: A complete larvae lateral view; A' carapace denticles; B antennule; C antenna; D mandibles; E maxillule; F maxilla; G first maxilliped; H second maxilliped; I third maxilliped; J telson. Scale bars: 0.1mm (A–D, F–J); 0.5mm (E).
FIGURE 5 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 5. Eighth zoea: A antennule; B antenna; C mandibles. Ninth zoea: D larvae dorsal view; E first maxilliped; F pleopods. Scale bars: 0.1mm.
FIGURE 3 in Description of the complete larval development of Lysmata amboinensis (De Man) (Decapoda: Lysmatidae) reared under laboratory conditions
FIGURE 3. Fourth zoea: A complete larvae lateral view; B antenna; C mandibles; D detail of fifth's pereiopod propodus and dactylus. Fifth zoea: E antennule; F first maxilliped; G second pereiopod; H third pereiopod; I detail of fifth's pereiopod propodus and dactylus; J uropods and telson. Scale bars: 0.1mm.
Generation-dependent functional and numerical responses of Neoseiulus californicus (Phytoseiidae) long-term reared on thorn apple pollen
<p>Raw data of Functional and numerical response of N. califrnicus on T. urticae in different generaaations</p>
FIGURE 14 in Correspondence of larval and postlarval instars in two species of the subgenus Zaracarus (Acari: Erythraeidae: Erythraeus) established with laboratory rearing
FIGURE 14. Erythraeus (Zaracarus) rupestris (Linnaeus, 1758), larva: Legs I–III. Details of tarsus (ta) I–III (normal setae omitted). Abbreviations: elcI—supracoxal seta, z—accompanying seta, ω—solenidion on tarsus, ζ—eupathidium, φ—solenidion on tibia, ε—famulus, κ—microseta, σ—solenidion on genu.
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.