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2,587 results for “Movement”
Figure 24 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 24. Coelopha frigida, preserved larva, abdominal segment 1, thorax and pseudocephalon, lateral view, length 2.9 mm.
Figure 22 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 22. Silba fumosa, mesothorax folding over prothorax during locomotion, lateral view, still from Film 9.
Figures 20. Silba fumosa, a lunge taking about 1 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 20. Silba fumosa, a lunge taking about 1 sec. (A) Start of a lunge, ventral view, from Film 8; (B) start of a lunge, lateral view from Film 9; (C–E) mandible positions at the limit of extension: (C) ventral view; (D) mandibles starting to depress and separate, ventral view; (E) on the substrate, lateral view.
Figures 33 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 33. Meiosimyza platycephala, preserved larva, pseudocephalon; (A) lateral view; (B) ventral view, length 0.2 mm.
Figure 21 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 21. Palloptera trimacula, mandibles fully extended and separated on lowering into food, antero-ventral view, still from Film 10.
Figure 54. Lonchaea sylvatica, still from Film 19 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 54. Lonchaea sylvatica, still from Film 19 showing small, sclerotised part of the oral plate (os), appearing below the inclined mandibular hooks (m), ventral view.
Figure 46 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 46 Chaetostomella cylindrica, preserved larva, lateral view, head to the right, length 6.3 mm.
Figure 52 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 52. Stegana coleoptrata, preserved larva, thorax and head, head to the right, lateral view, length 1.3 mm.
Figure 40 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 40. Acidia cognata, leaf mine in Tussilago farfara L. Asteraceae: t = between the arrows, part of a feeding track; a = arcs within a feeding track.
Figures 41 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 41. Head skeletons of phytophagous species, lateral views, mandibles to the left. (A) Tephritis vespertina, length 0.3 mm; (B) Acidia cognata, length 0.6 mm; (C) Chaetostomella cylindrica, length 0.6 mm; (D) Botanophila seneciella, length 0.7 mm. Botanophila seneciella, drawing of mandible and intermediate sclerite: (E) lateral view with muscle tendons; (F) ventral view; (G) Pegomya solennis, length 0.5 mm.
Figure 11 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 11. Microdon analis, position of mandibles and labial plate + sclerites during a feeding lunge inside a Lasius ant larva (Formicidae), still from Film 5. lp = labial plate and sclerites; m = mandible, ma = apodeme at base of mandible.
Figures 12 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 12. Melangyna cincta, preserved larva. (A) Prothorax and apex of head skeleton, apico-ventral view; (B) prothorax and apex of head skeleton, lateral view; (C) drawing of apical end of the head skeleton, lateral view. a = antenna; c = connecting tissue; lb = labrum; lm = labium; m = mandible; ma = postero-ventral muscle attachment apodeme; os = labial sclerite; ts = triangular sclerite.
Figures 4 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 4. Lonchoptera lutea, feeding on biofilm coating dead wood, stills from Film 2. (A) Pseudocephalon lowered into biofilm; (B) extrudable cones swing round to front of pseudocephalon; (C) pseudocephalon lifted up; (D) limit of pseudocephalon lifting.
Figure 7 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 7. Polyporivora picta, labial teeth and mandible with serrated margin outside the upper two labial teeth.
Figure 9 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 9. Microdon analis, drawing of the articulation point between the mandible and the labium, lateral view, length of mandible 0.3 mm. lm = labium; lp = labial plate; ls = labial sclerite; m = mandible; mt = muscle tendon; sd = salivary duct; sj = socket joint.
Figures 6. Polyporivora picta, head skeleton from a in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figures 6. Polyporivora picta, head skeleton from a puparium. (A) Lateral view, labial teeth to the right, length 0.6 mm; (B) apical view of labial teeth.
Figure 8 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 8. Microdon analis, head skeleton, removed from a puparium, lateral view, mandibles to the left, length 1.4 mm.
Figure 2 in Diverse mechanisms of feeding and movement in Cyclorrhaphan larvae (Diptera)
Figure 2. Lonchoptera lutea, larva with extended front compartment, still from a film. p = prothotax; m = mesothorax; m+a1 = fused metathorax + first abdominal segment.
Short-term movements of Boiga nigriceps (Squamata: Colubridae) with notes on its diet
<p>Supplementary files for the <em>Herpetology Notes </em>article titled "Short-term movements of <em>Boiga nigriceps </em>(Squamata: Colubridae) with notes on its diet".</p>
Fine-scale changes in speed and altitude suggest protean movements in homing pigeon flights
<p>The power curve provides a basis for predicting adjustments that animals make in flight speed, for example in relation to wind, distance, habitat foraging quality and objective. However, relatively few studies have examined how animals respond to the landscape below them, which could affect speed and power allocation through modifications in climb rate and perceived predation risk. We equipped homing pigeons (<i>Columba livia</i>) with high-frequency loggers to examine how flight speed, and hence effort, varies in relation to topography and land cover. Pigeons showed mixed evidence for an energy-saving strategy, as they minimized climb rates by starting their ascent ahead of hills, but selected rapid speeds in their ascents. Birds did not modify their speed substantially in relation to land cover, but used higher speeds during descending flight, highlighting the importance of considering the rate of change in altitude before estimating power use from speed. Finally, we document an unexpected variability in speed and altitude over fine scales; a source of substantial energetic inefficiency. We suggest this may be a form of protean behaviour adopted to reduce predation risk when flocking is not an option, and that such a strategy could be widespread.</p>
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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.