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68 results for “Bat flies”
On following pages: 296. Golden-tipped Bat (Phoniscus papuensis); 297. Hardwicke's Woolly Bat (Kerivoula hardwickii); 298. Flat-skulled Woolly Bat (Kerivoula depressa); 299. Sri Lankan Woolly Bat (Kerivoula malpasi: 300. Cryptic Woolly Bat (Kerivoula crypta); 301. Dark Woolly Bat (Kerivoula furva); 302. Kachin Woolly Bat (Kerivoula kachinensis); 303. Indochinese Woolly Bat (Kerivoula dongduongana); 304. Krau Woolly Bat (Kerivoula krauensis); 305. Titania's Woolly Bat (Kerivoula titania); 306. Least Woolly Bat (Kerivoula minuta); 307. Small Woolly Bat (Kerivoula intermedia); 308. Papillose Woolly Bat (Kerivoula papillosa); 309. Lenis Woolly Bat (Kerivoula lenis); 310. Clearwinged Woolly Bat (Kerivoula pellucida); 311. Painted Woolly Bat (Kerivoula picta); 312. Whitehead's Woolly Bat (Kerivoula whitehead); 313. Flores Woolly Bat (Kerivoula flora); 314. Fly River Woolly Bat (Kerivoula muscina); 315. Saint Aignan's Woolly Bat (Kerivoula agnella); 316. Bismarck Woolly Bat (Kerivoula myrella); 317. Lesser Woolly Bat (Kerivoula lanosa); 318. Ethiopian Woolly Bat (Kerivoula eriophora); 319. Tanzanian Woolly Bat Kerivoula africana); 320. Smith's Woolly Bat (Kerivoula smithii); 321. Coppery Woolly Bat (Kerivoula cuprosa); 322. Spurrell's Woolly Bat (Kerivoula phalaena); 323. Damara Woolly Bat (Kerivoula argentata). in Vespertilionidae
On following pages: 296. Golden-tipped Bat (Phoniscus papuensis); 297. Hardwicke's Woolly Bat (Kerivoula hardwickii); 298. Flat-skulled Woolly Bat (Kerivoula depressa); 299. Sri Lankan Woolly Bat (Kerivoula malpasi: 300. Cryptic Woolly Bat (Kerivoula crypta); 301. Dark Woolly Bat (Kerivoula furva); 302. Kachin Woolly Bat (Kerivoula kachinensis); 303. Indochinese Woolly Bat (Kerivoula dongduongana); 304. Krau Woolly Bat (Kerivoula krauensis); 305. Titania's Woolly Bat (Kerivoula titania); 306. Least Woolly Bat (Kerivoula minuta); 307. Small Woolly Bat (Kerivoula intermedia); 308. Papillose Woolly Bat (Kerivoula papillosa); 309. Lenis Woolly Bat (Kerivoula lenis); 310. Clearwinged Woolly Bat (Kerivoula pellucida); 311. Painted Woolly Bat (Kerivoula picta); 312. Whitehead's Woolly Bat (Kerivoula whitehead); 313. Flores Woolly Bat (Kerivoula flora); 314. Fly River Woolly Bat (Kerivoula muscina); 315. Saint Aignan's Woolly Bat (Kerivoula agnella); 316. Bismarck Woolly Bat (Kerivoula myrella); 317. Lesser Woolly Bat (Kerivoula lanosa); 318. Ethiopian Woolly Bat (Kerivoula eriophora); 319. Tanzanian Woolly Bat Kerivoula africana); 320. Smith's Woolly Bat (Kerivoula smithii); 321. Coppery Woolly Bat (Kerivoula cuprosa); 322. Spurrell's Woolly Bat (Kerivoula phalaena); 323. Damara Woolly Bat (Kerivoula argentata).
On following pages: 117. Mindoro Pallid Flying Fox (Desmalopex microleucopterus); 118. Fijian Monkey-faced Fruit Bat (Mirimiri acrodonta); 119. Bougainville Monkey-faced Fruit Bat (Pteralopex anceps); 120. Guadalcanal Monkey-faced Fruit Bat (Pteralopex atrata); 121. Montane Monkey-faced Fruit Bat (Pteralopex pulchra); 122. New Georgia Monkey-faced Fruit Bat (Pteralopex taki); 123. Greater Monkey-faced Fruit Bat (Pteralopex flanneryi), 124. Black-bellied Blossom Bat (Melonycteris melanops); 125. Fardoulis's Blossom Bat (Nesonycteris fardoulisi); 126. Woodford's Blossom Bat (Nesonycteris woodford)). in Pteropodidae
On following pages: 117. Mindoro Pallid Flying Fox (Desmalopex microleucopterus); 118. Fijian Monkey-faced Fruit Bat (Mirimiri acrodonta); 119. Bougainville Monkey-faced Fruit Bat (Pteralopex anceps); 120. Guadalcanal Monkey-faced Fruit Bat (Pteralopex atrata); 121. Montane Monkey-faced Fruit Bat (Pteralopex pulchra); 122. New Georgia Monkey-faced Fruit Bat (Pteralopex taki); 123. Greater Monkey-faced Fruit Bat (Pteralopex flanneryi), 124. Black-bellied Blossom Bat (Melonycteris melanops); 125. Fardoulis's Blossom Bat (Nesonycteris fardoulisi); 126. Woodford's Blossom Bat (Nesonycteris woodford)).
Flying under the LiDAR: relating forest structure to bat activity and call diversity
<p>Bat call data collected at Ordway-Swisher Biological Station from June - September 2015.</p>
FIGURE 4. A–B. Ascodipteron species A in Investigation of taxonomically important morphological features of endoparasitic bat flies of the subfamily Ascodipterinae (Diptera: Streblidae) by scanning electron microscopy
FIGURE 4. A–B. Ascodipteron species A (ex. R. paradoxalophus), Tuyen Province, Vietnam. A. Overview of microvillilike organelles on subdermal surface of neosome. B. Enlargement of A. C– D. Ascodipteron emballonurae (ex. H. pomona), Quang Nam, Vietnam. C. Overview of microvillilike organelles on subdermal surface of neosome. D. Enlargement of C. E–F. Ascodipteron species A (ex. R. paradoxalophus), Tuyen Province, Vietnam. E. Anus, cerci, and genital orifice. F. Cercus, enlargement. Scale in microns.
FIGURE 5. A–D. Ascodipteron species A in Investigation of taxonomically important morphological features of endoparasitic bat flies of the subfamily Ascodipterinae (Diptera: Streblidae) by scanning electron microscopy
FIGURE 5. A–D. Ascodipteron species A (ex. H. pomona), larva (prepupa), Quang Nam Province, Vietnam. A. Ventroposterior aspect. B. Ventral spiracle (enlargement). C. Dorsoposterior aspect. D. Dorsal and ventral spiracles (enlargement). Abbreviations: ao, anal orifice; dsp, dorsal spiracle; vsp, ventral spiracle. Scale in microns.
FIGURE 3. A–B in Investigation of taxonomically important morphological features of endoparasitic bat flies of the subfamily Ascodipterinae (Diptera: Streblidae) by scanning electron microscopy
FIGURE 3. A–B. Ascodipteron emballonurae (ex. H. pomona), Quang Nam Province, Vietnam. A. Genital aperture, lateral view, arrows indicate spiracles. B. Genital aperture, lateral view, enlargement. C–D. Ascodipteron species A (ex. R. paradoxalophus), Tuyen Province, Vietnam. C. Genital aperture (arrow), lateral view. D. Genital aperture, lateral view, enlargement. E–F. Ascodipteron emballonurae (ex. H. pomona), spiracles, Quang Nam, Vietnam. E. Dorsal view. F. Lateral view. Abbreviations: sp5, sp6, sp7, respective numbered terminal spiracles. Scale in microns.
FIGURE 2. A–E in Investigation of taxonomically important morphological features of endoparasitic bat flies of the subfamily Ascodipterinae (Diptera: Streblidae) by scanning electron microscopy
FIGURE 2. A–E. Undescribed genus of Ascodipterinae (ex. R. affinis), Tuyen Province, Vietnam (A–B, D–E), and (ex. R. macrotis) Guangxi Province, China (C). A. Head and thorax, oblique lateral view. B. Labial theca, dorsal view. C. Labial theca, dorsal view (image by light microscopy). D. Labial theca, anterior view. E. Labial theca, anteroventral view. Abbreviation: lg, labial gutter. Scale in microns.
FIGURE 1. A–C. Ascodipteron species A in Investigation of taxonomically important morphological features of endoparasitic bat flies of the subfamily Ascodipterinae (Diptera: Streblidae) by scanning electron microscopy
FIGURE 1. A–C. Ascodipteron species A (ex. R. paradoxalophus), Tuyen Province, Vietnam. A. Head and thorax, dorsal view. Uppermost arrow indicates striations of underlying muscles of dorsal cheliceral blades. B. Head, lateral view. Arrows indicate striations of underlying muscles of dorsal and ventral cheliceral blades. C. Head, anterior view. Arrow indicates striations of ventral cheliceral blades. Abbreviations: ant, antenna; fr, frons; g, gena; lt, labial theca; lv, lateral vertex; sc, scutum. Scale in microns.
Figure 1 in Phyllostomid bats flying in daylight: a case from the Neotropics
Figure 1. Diurnal foraging and drinking activities in phyllostomid non-haematophagous bats in an Amazon Forest remnant, midwest Brazil. (a) Phyllostomus sp. drinking water in a temporary pond on a dirty road inside a forest remnant; (b) Phyllostomus sp. feeding on termites in flight; (c) Artibeus sp. roosting in tree foliage, in the vicinity of a pond; and (d) Dermanura sp. captured in a mist net. Photographs by the authors.
Data from: A phantom ultrasonic insect chorus repels low-flying bats, but most are undeterred
<p><b>Abstract</b></p> <p>1. The acoustic environment can serve as a niche axis, structuring animal behaviour by providing or obscuring salient information. Meadow katydid choruses occupy the ultrasonic, less studied, realm of this acoustic milieu, form dense populations in some habitats, and present a potential sensory challenge to co-occurring ultrasonic-hearing animals. Aerial-hawking insectivorous bats foraging immediately over vegetation must listen for echoes of their prey and other cues amidst the chorus din.</p> <p>2. We experimentally created the cacophony of a katydid chorus in a katydid-free rice paddy using an aggregation of 100 ultrasonic speakers in a 25 x 25 m grid to test the hypothesis that aerially hawking bats are averse to this noise source. We alternated between chorus-on and chorus-off hourly, and acoustically monitored bat activity and arthropod prey abundance.</p> <p>3. We found that our phantom katydid chorus reduced bat activity nearest the sound source by 39.3% (95% CI: 7.8 - 60.0%) for species whose call spectrum fully overlapped with the chorus, and elicited marginal reductions in activity in species with only partial spectral overlap.</p> <p>4. Our study suggests that ultrasonic insect choruses degrade foraging habitat, potentially suppressing bats' ecosystem services as consumers of pests; and, given the global distribution of meadow katydids, may provide an underappreciated force modifying animal behaviour in other grassland habitats.</p>
FIG. 2 in Host-parasite relationships between a Malagasy fruit bat (Pteropodidae) and associated bat fly (Diptera: Nycteribiidae): seasonal variation of host body condition and the possible impact of parasite abundance
FIG. 2. Body Condition Index (BCI) of R. madagascariensis in the Grotte des Chauves-souris, Parc National d'Ankarana, based on five different field sessions and separated into the different age and sex classes. AF = adult female, AM = adult male, NF = neonate female, NM = neonate male, SAF = sub-adult female, SAM = sub-adult male
FIG. 1 in Host-parasite relationships between a Malagasy fruit bat (Pteropodidae) and associated bat fly (Diptera: Nycteribiidae): seasonal variation of host body condition and the possible impact of parasite abundance
FIG. 1. Location map of the study site, Grotte des Chauves-souris, in the Parc National d'Ankarana, northern Madagascar
FIG. 1 in Parasitism by bat flies on an urban population of Cynopterus brachyotis in Singapore
FIG. 1. Map of Singapore with the study area enlarged, showing the approximate areas covered by secondary forest in Kent Ridge Road and Kent Ridge Park
FIG. 3 in Parasitism by bat flies on an urban population of Cynopterus brachyotis in Singapore
FIG. 3. Scatter-plot of number of bat flies versus an index of bat body condition (quotient of body mass over forearm length). Circles indicate adult individuals and triangles indicate juveniles
FIG. 2 in Parasitism by bat flies on an urban population of Cynopterus brachyotis in Singapore
FIG. 2. Histograms showing frequency of L. f. ferrarii counts on parasitized C. brachyotis individuals by host (A) sex, (B) age, and (C) reproductive status
Data from: Nathusius' bats optimize long-distance migration by flying at maximum range speed.
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Data from: Warm bodies, cool wings: regional heterothermy in flying bats
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Data from: Origin, acquisition and diversification of heritable bacterial endosymbionts in louse flies and bat flies
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Data from: A phantom ultrasonic insect chorus repels low-flying bats, but most are undeterred
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FIGURE 2 in Checklist of host associations of European bat flies (Diptera: Nycteribiidae, Streblidae)
FIGURE 2. Map illustrating sites sampled for bat flies in Hungary in 1998–1999 and 2012–2014.
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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
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