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690 results for “antennae”
Simulations with different antennas reconstructing the same trajectory
<p>The ZIP-file "OneTrajectoryManyAntennasExperiments.zip" contains archive of simulations of an array of different antennas reconstructing the same trajectory. </p> <p>The files with names<br> <antenna number>antenna_TDOAs<bat>.cvs<br> contain baseline TDOAs, our method TDOAs and real TDOAs for each time moment </p> <p>The files with names<br> <antenna number>antennaTraj<bat>_xyzBaseline.csv<br> contain trajectory reconstructed using baseline TDOAs: x,y,z values for each time moment </p> <p>The files with names<br> <antenna number>antennaTraj<bat>_OurMethod.csv<br> contain trajectory reconstructed using TDOAs calculated by our method: x,y,z values for each time moment </p> <p>The files with names<br> ALLantennasTraj<bat>_xyzBaselineAndOur<br> ALLantennas_TDOAs<bat><br> contain Matlab figures and pictures of all trajectories and TDOAs.</p> <p>Archive "signalsAndCorrelations.zip" contains signals captured by microphones and correlations between them.<br> </p>
FIGURE 15. Antenna, genus Megalothorax. M in Morphological review of the order Neelipleona (Collembola) through the redescription of the type species of Acanthoneelidus, Neelides and Neelus
FIGURE 15. Antenna, genus Megalothorax. M. nigropunctatus (A) posterior side, (B) anterior side modified after Schneider & D'Haese (2013); M. perspicillum (C) posterior side, (D) anterior side modified after Schneider & D'Haese (2013), (E) dorsal side; M. svalbardensis (F) posterior side, (G) anterior side. Scale bar (E) = 10 µm.
Fig. 11. Antennal socket, left lateral view. A. Amblyopone mercovichi. B. Myopopone castanea, antenna removed. C in A phylogenetic analyis of ant morphology (Hymenoptera: Formicidae) with special reference to the poneromoprh subfamilies
Fig. 11. Antennal socket, left lateral view. A. Amblyopone mercovichi. B. Myopopone castanea, antenna removed. C. Cerapachys nitidulus, left antenna removed. Abbreviations: ac, acetabulum of antennal socket; PTrF, posttorular flange; TrL, torular lobe; tptr, torular-posttorular complex.
FIGURES. Chrysacris lii sp. nov. A. antennae ♂; B. body, in lateral view ♂; C. head and pronotum in dorsal view ♂; D. mesosternum ♂; E. terminalia of abdomen, in lateral view ♂; F. phallic complex; G. epiphallus; H. terminalia of abdomen, in dorsal view ♂; I. body, in lateral view, ♀; J. mesosternum ♀; K. end of abdomen, in lateral view ♀; L. end of abdomen, in ventral view ♀. in A new species of the genus Chrysacris Zheng, 1983 from China (Orthoptera: Acridoidea, Acrididae)
FIGURES. Chrysacris lii sp. nov. A. antennae ♂; B. body, in lateral view ♂; C. head and pronotum in dorsal view ♂; D. mesosternum ♂; E. terminalia of abdomen, in lateral view ♂; F. phallic complex; G. epiphallus; H. terminalia of abdomen, in dorsal view ♂; I. body, in lateral view, ♀; J. mesosternum ♀; K. end of abdomen, in lateral view ♀; L. end of abdomen, in ventral view ♀.
Figs. 9–12. Aritaerius pallidus antennae and mandibles. 9 in A New Genus and Species of Hetaeriinae (Coleoptera: Histeridae) from Southwestern North America
Figs. 9–12. Aritaerius pallidus antennae and mandibles. 9) Antennal club, dorsal view; 10) antennal club, ventral view. Line scales ¼ 0.05 mm; 11) right mandible, dorsal view; 12) left mandible, ventral view. Line scale ¼ 0.09 mm.
Figs. 5–7 in Two New Species of Aglyptinus Cockerell with Unusual Sexually Dimorphic Antennae and Diffraction Gratings (Coleoptera: Leiodidae)
Figs. 5–7. Median lobe of male genitalia. 5) Aglyptinus phymaphorus; 6) A. tumerus; 7) Aglyptinus sp.
Figs. 2–4 in Two New Species of Aglyptinus Cockerell with Unusual Sexually Dimorphic Antennae and Diffraction Gratings (Coleoptera: Leiodidae)
Figs. 2–4. Antennae of males. 2) Aglyptinus tumerus; 3) A. phymaphorus; 4) associated unmodified male, Aglyptinus sp.
Figs. 10, 11 in Two New Species of Aglyptinus Cockerell with Unusual Sexually Dimorphic Antennae and Diffraction Gratings (Coleoptera: Leiodidae)
Figs. 10, 11. Diffracting microsculpture of male A. tumerus (54503). 10) Dorsal view; 11) lateral-oblique view.
Figs. 5–8. Aritaerius pallidus epipharynx and antennae. 5 in A New Genus and Species of Hetaeriinae (Coleoptera: Histeridae) from Southwestern North America
Figs. 5–8. Aritaerius pallidus epipharynx and antennae. 5) Labrum epipharynx. Line scales ¼ 0.45 mm.; 6) labrum epipharynx, epipharyngeal sensillae detail. Line scales ¼ 0.01 mm.; 7) antenna, dorsal view; 8) antenna, ventral view. Line scales ¼ 0.1 mm.
FIGURE 1. Merodon antenna, lateral view. A in Two new enigmatic species of the genus Merodon Meigen (Diptera: Syrphidae) from the north-eastern Middle East
FIGURE 1. Merodon antenna, lateral view. A Merodon eumerusi sp. n. male, inner side, B Merodon eumerusi sp. n. male, outer side, C Merodon eumerusi sp. n. female, inner side, D Merodon eumerusi sp. n. female, outer side, E Merodon pumilus Macquart male, outer side, F Eumerus armatus Ricarte et Rotheray male, outer side, G Eumerus truncatus Rondani male, outer side. f—fossette. Scale bar, 1 mm.
Figs. 39–47. Pujoliclerus species, antennae. 39 in Classification, Natural History, and Evolution of the Checkered Beetle GenusPujoliclerusPic (Coleoptera: Cleridae: Peloniinae)
Figs. 39–47. Pujoliclerus species, antennae. 39) P. macilentus; 40) P. megalus; 41) P. argus; 42) P. aspigalbus;
Figs. 21–38. Pujoliclerus species, antennae. 21 in Classification, Natural History, and Evolution of the Checkered Beetle GenusPujoliclerusPic (Coleoptera: Cleridae: Peloniinae)
Figs. 21–38. Pujoliclerus species, antennae. 21) P. helvinus; 22) P. maracayensis; 23) P. bilineatus; 24) P. calceatus; 25) P. corumba; 26) P. ovatus; 27) P. wappesi; 28) P. amplus; 29) P. flavoapicalus; 30) P. gilvus; 31) P. hermani; 32) P. alajuela; 33) P. orellana; 34) P. megacavus; 35) P. oxinus; 36) P. alboordinus; 37) P. apolegmus; 38) P. catarina.
Fig. 3 in Vision-Linked Traits Associated With Antenna Size and Foraging Ecology Across Ants
Fig. 3. Mapped lateral eye positions according to ecology. Species indicated by circles, squares represent mean values for ecological binnings. (A) Eye position, both dorsoventral and anteroposterior, mapped on a theoretical ant head. Colors are indicative of foraging niche. (B) Eye position measurements with colors indicating trophic level. Illustrated head proportions based on ratio of mean head length and depth in lateral view across taxa sampled; head length is approximately 40% greater than head depth in profile view on average.
Fig. 1 in Vision-Linked Traits Associated With Antenna Size and Foraging Ecology Across Ants
Fig. 1. Variation among vision-based traits across sampled taxa. Pruned phylogenetic tree from Blanchard and Moreau (2017) with log adjusted ommatidia density mapped along branches.The raw units for ommatidia density are ommatidia per 1mm2. Ecological niche occupation indicated with icons and bar graph colors, includes foraging niche and trophic level. (Right) Eye area normalized by frontal head area across sampled species. Corresponding PGLS results in Fig. 2, Table 2.
Fig. 5 in Vision-Linked Traits Associated With Antenna Size and Foraging Ecology Across Ants
Fig. 5. Visual acuity and trophic level. (Left) Variation between eye area and ommatidia number across sampled ant species.Trophic level information displays omnivorous (n = 31) and predatory (n = 28) ant species. Unknowns are also included (n = 11).Trendline shows linear regression of ommatidia number and eye area (R2 = 0.7908, P = <2.2 x 10–16). Both measurements are scaled by frontal head area. (Right) Simplified, hypothetical representation of visual acuity based on ommatidia number.
Fig. 4 in Vision-Linked Traits Associated With Antenna Size and Foraging Ecology Across Ants
Fig. 4. Phylogenetic Generalized Least Squares regression of scape length and eye traits. Results of linear regressions of visual traits against scape length; (A) ommatidia density R2 = 0.1754, P = 0.0004615; (B) eye height R2 = 0.4735, P = 5.40 x 10–10; (C) dorsoventral eye position R = 0.1365, P = 0.001975; (D) anteroposterior eye position R2 = 0.1286, P = 0.002643. Scape and eye height are scaled by head area. All specimens were included in analyses (n = 64); PGLS relationships from Blanchard and Moreau 2017. ** denotes P ≤ 0.01; *** P ≤ 0.001.
Figs 21-27. Male genitalia and antenna. 21 in On the Scaphidiinae (Coleoptera: Staphylinidae) of Java, Indonesia
Figs 21-27. Male genitalia and antenna. 21 – Scaphobaeocera basalis sp. nov., aedeagus in lateral view, scale = 0.1 mm. 22 – Ditto, internal sac, scale 0.1 mm. 23, 24 – Scaphobaeocera larga sp. nov., aedeagus in dorsal and lateral views, scale = 0.1 mm. 25 – Scaphobaeocera montisgedei sp. nov., antennomeres III to XI, scale = 0.1 mm. 26, 27 – Ditto, aedeagus in dorsal and lateral views, scale = 0.1 mm
FIGURE 4 in Description of a new genus and species of Encyrtidae (Hymenoptera: Chalcidoidea) from Danish amber, based on a male specimen featuring an antenna with a distinct anellus
FIGURE 4. Electroanellus belokobylskiji, holotype male: apex of gaster, ventral view (ab—air bubble, adg—aedeagus, cers— cercal setae, dig—digitus, phl—phallobase). Scale bar: 0.1 mm.
FIGURE 1. Electroanellus belokobylskiji, holotype male A in Description of a new genus and species of Encyrtidae (Hymenoptera: Chalcidoidea) from Danish amber, based on a male specimen featuring an antenna with a distinct anellus
FIGURE 1. Electroanellus belokobylskiji, holotype male A body, dorsolateral view (anl—anellus, cer—cercus), B body, ventrolateral view (dig—digitus, cers—cercal setae).
FIGURE 3 in Description of a new genus and species of Encyrtidae (Hymenoptera: Chalcidoidea) from Danish amber, based on a male specimen featuring an antenna with a distinct anellus
FIGURE 3. Electroanellus belokobylskiji, holotype male: A body, dorsal view (dm—depression on mesoscutum) B wings. Scale bars: 0.5 mm (A); 0.1 mm (B).
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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)
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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.