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1,163 results for “E&V”
Рис. 1. А — рыжеухий бюΛьбюΛь на боярышнике, с. Δазо, Приморский край, 5.11.2019. Фото В. П. Шохрина; B — рыжеухий бюΛьбюΛь пьет сок кΛена приречного, с. Каймановка, Уссурийский гороΑской округ, Приморский край, 03.04.2022. Фото À. А. БеΛяева; C — рыжеухий бюΛьбюΛь кормится ягоΑами Αевичьего винограΑа пятиΛисточкового, г. ВΛаΑивосток, 02.01.2020. Фото А. П. ХоΑакова; D — рыжеухий бюΛьбюΛь, кΛ. ФореΛевый, окрестности с. ФиΛипповка, Хасанский район, Приморский край, 01.03.2018. Фото Ю. А. Àармана; E — рыжеухий бюΛьбюΛь кормится ягоΑами бархата амурского, г. ВΛа- Αивосток, 06.11.2019. Фото А. В. ВяΛкова; F — рыжеухий бюΛьбюΛь, с. Каймановка, Уссурийский гороΑской округ, Приморский край, 04.05.2022. Фото М. В. МасΛова Fig. 1. A — brown-eared bulbul on a hawthorn tree, Lazo village, Primorsky Region, 5.11.2019. Photo by V. P. Shokhrin; B — brown-eared bulbul drinks the juice of an Amur maple, Kaymanovka Village, Ussuriysky Urban District, Primorsky Region, 03.04.2022. Photo by D. A. Belyaev; C — brown-eared bulbul feeds on the berries of the Virginia creeper, Vladivostok, 02.01.2020. Photo by A. P. Khodakov; D — brown-eared bulbul. Forelevy spring, vicinity of Filippovka Village, Khasansky District, Primorsky Region, 01.03.2018. Photo by Yu. A. Darman; E — brown-eared bulbul feeds on the berries of an Amur cork tree, Vladivostok, 06.11.2019. Photo by A. V. Vyalkov; F — brown-eared bulbul. Kaymanovka Village, Ussuriysky Urban District, Primorsky Region, 04.05.2022. Photo by M. V. Maslov in An increase in the number of records of the brown-eared bulbul Microscelis amaurotis in the Russian Far East in recent years
Рис. 1. А — рыжеухий бюΛьбюΛь на боярышнике, с. Δазо, Приморский край, 5.11.2019. Фото В. П. Шохрина; B — рыжеухий бюΛьбюΛь пьет сок кΛена приречного, с. Каймановка, Уссурийский гороΑской округ, Приморский край, 03.04.2022. Фото À. А. БеΛяева; C — рыжеухий бюΛьбюΛь кормится ягоΑами Αевичьего винограΑа пятиΛисточкового, г. ВΛаΑивосток, 02.01.2020. Фото А. П. ХоΑакова; D — рыжеухий бюΛьбюΛь, кΛ. ФореΛевый, окрестности с. ФиΛипповка, Хасанский район, Приморский край, 01.03.2018. Фото Ю. А. Àармана; E — рыжеухий бюΛьбюΛь кормится ягоΑами бархата амурского, г. ВΛа- Αивосток, 06.11.2019. Фото А. В. ВяΛкова; F — рыжеухий бюΛьбюΛь, с. Каймановка, Уссурийский гороΑской округ, Приморский край, 04.05.2022. Фото М. В. МасΛова Fig. 1. A — brown-eared bulbul on a hawthorn tree, Lazo village, Primorsky Region, 5.11.2019. Photo by V. P. Shokhrin; B — brown-eared bulbul drinks the juice of an Amur maple, Kaymanovka Village, Ussuriysky Urban District, Primorsky Region, 03.04.2022. Photo by D. A. Belyaev; C — brown-eared bulbul feeds on the berries of the Virginia creeper, Vladivostok, 02.01.2020. Photo by A. P. Khodakov; D — brown-eared bulbul. Forelevy spring, vicinity of Filippovka Village, Khasansky District, Primorsky Region, 01.03.2018. Photo by Yu. A. Darman; E — brown-eared bulbul feeds on the berries of an Amur cork tree, Vladivostok, 06.11.2019. Photo by A. V. Vyalkov; F — brown-eared bulbul. Kaymanovka Village, Ussuriysky Urban District, Primorsky Region, 04.05.2022. Photo by M. V. Maslov
Fig. 5 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 5. Decision tree used for specimens euthanized to obtain tissue. Blue indicates steps in the decision tree. Green indicates procedures that will lead to preservation of tissues for genetic study. Purple indicates procedures that lead to achieving multiple goals, including cell culture and obtaining gametes for current or future ARTs. NOTE: Breeding and IVF can result in offspring that can be used for genetic purposes, thereby achieving multiple goals.
Fig. 6 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 6. Decision tree used to obtain tissue from live animals. Blue indicates steps in the decision tree. Green indicates procedures that will lead to preservation of tissues for genetic study. Purple indicates procedures that lead to achieving multiple goals, including obtaining gametes for current or future ARTs. NOTE: Breeding and IVF can result in offspring that can be used for genetic purposes, thereby achieving multiple goals.
Fig. 4 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 4. Length of time from cell culture initiation to freezing for amphibian cell lines in San Diego Zoo's Frozen Zoo®. Low = 19 days; high = 596 days; average = 154 days.
Fig. 3 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 3. The "tissue piecing" protocol used to preserve viable cells for establishment of cell lines in the future. A) Tissue is cut into long, thin strips. B) Tissue is diced into 1 mm3 fragments before adding medium containing 10% DMSO as a cryoprotectant. C) Prepared tissue is stored in LN2 until future cell culture is possible; those without cell culture capability can transport samples using a dry shipper to maintain cold-chain.
Fig. 2 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 2. Procedures used to obtain amphibian eggs or sperm for use in ARTs. A) Gravid female Leopard Frog (Lithobates sp.) after gonadotropic hormone injection. B) Expressing eggs into container by pressing on abdomen and pushing thumb toward cloaca; eggs can be fertilized (i.e., IVF) by fresh or cryopreserved sperm. Sperm can similarly be released from males by pushing towards the cloaca and releasing sperm naturally (in season) or after injection of gonadotropic hormones (e.g., HIS).
Fig. 1 in P e r s p e c t i v e Integrating current methods for the preservation of amphibian genetic resources and viable tissues to achieve best practices for species conservation
Fig. 1. Role of genetic resource collections in the research and conservation of amphibians. Green indicates the storage of tissues in biobanks. Purple indicates procedures associated with ARTs that lead to achieving multiple goals in amphibian research and conservation. Asterisk (*) denotes tissue or methodologies that are not currently used in ARTs but may be possible in the future. NOTE: For a more complete list of ARTs reference Clulow et al. (2014).
Fig. 3. A–E. Discoglossidae. A. PSMUBB V 356 in New lissamphibians and squamates from the Maastrichtian of Haţeg Basin, Romania
Fig. 3. A–E. Discoglossidae. A. PSMUBB V 356, cf. Eodiscoglossus sp., left ilium in lateral view. B, C. cf. Paradiscoglossus sp. B. PSMUBB V 357, great form, right ilium in lateral view. C. PSMUBB V 358, small form, left ilium in lateral view. D, E. Discoglossidae indet. D. PSMUBB V 353, urostyle in dorsal view. E. PSMUBB V 355 sacral vertebra in ventral view. F, G. Becklesius. F. PSMUBB V 365, B. cf. hoffstetteri, left dentary in lingual view. G. PSMUBB V 361, holotype of B. nopcsai sp. nov., fragment of left dentary (G1) and tooth crown (G2) in lingual view. SEM migrographs.
Text-fig. 7. Typhlomys hipparionum Q, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25885.4), b) right M1 (IVPP V 25885.5), IU c) left M2 (IVPP V 25885.6), d) left M2 (IVPP V 25885.7, reversed), e) left M3 (IVPP V 25885.8), f) right M3 (IVPP V 25885.9), g) left M1 (IVPP V 25885.10), h) right M1 (IVPP V 25885.11), i) left M2 (IVPP V 25885.12), j) right M2 (IVPP V 25885.13), k) left M3 (IVPP V 25885.1), l) left M3 (IVPP V 25885.14, reversed). in Platacanthomyids (Rodentia, Mammalia) From The Late Miocene Yuanmou Hominoid Locality Of Yunnan, China
Text-fig. 7. Typhlomys hipparionum Q, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25885.4), b) right M1 (IVPP V 25885.5), IU c) left M2 (IVPP V 25885.6), d) left M2 (IVPP V 25885.7, reversed), e) left M3 (IVPP V 25885.8), f) right M3 (IVPP V 25885.9), g) left M1 (IVPP V 25885.10), h) right M1 (IVPP V 25885.11), i) left M2 (IVPP V 25885.12), j) right M2 (IVPP V 25885.13), k) left M3 (IVPP V 25885.1), l) left M3 (IVPP V 25885.14, reversed).
Text-fig. 5. Typhlomys aff. T. primitivus Q, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25884.53), b) right M1 (IVPP IU V 25884.54), c) left M2 (IVPP V 25884.55), d) right M2 (IVPP V 25884.14), e) left M3 (IVPP V 25884.56), f) right M3 (IVPP V 25884.57), g) left M1 (IVPP V 25884.15), h) right M1 (IVPP V 25884.58), i) left M2 (IVPP V 25884.59), j) right M2 (IVPP V 25884.60), k) left M3 (IVPP V 25884.61), l) right M2 (IVPP V 25884.62). in Platacanthomyids (Rodentia, Mammalia) From The Late Miocene Yuanmou Hominoid Locality Of Yunnan, China
Text-fig. 5. Typhlomys aff. T. primitivus Q, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25884.53), b) right M1 (IVPP IU V 25884.54), c) left M2 (IVPP V 25884.55), d) right M2 (IVPP V 25884.14), e) left M3 (IVPP V 25884.56), f) right M3 (IVPP V 25884.57), g) left M1 (IVPP V 25884.15), h) right M1 (IVPP V 25884.58), i) left M2 (IVPP V 25884.59), j) right M2 (IVPP V 25884.60), k) left M3 (IVPP V 25884.61), l) right M2 (IVPP V 25884.62).
Text-fig. 3. Platacanthomys dianensis QIU, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25883.16), b) right M1 (IVPP V 25882.17), c) left M2 (IVPP V 25883.18), d) right M2 (IVPP V 25883.7), e) left M3 (IVPP V 25883.19), f) right M3 (IVPP V 25883.20), g) left M1 (IVPP V 25883.21), h) right M1 (IVPP V 25883.8), i) left M2 (IVPP V 25883.1), j) right M2 (IVPP V 25883.22), k) left M3 (IVPP V 25883.23), l) right M2 (IVPP V 25883.2). in Platacanthomyids (Rodentia, Mammalia) From The Late Miocene Yuanmou Hominoid Locality Of Yunnan, China
Text-fig. 3. Platacanthomys dianensis QIU, 1989 from Leilao, Yuanmou. a) left M1 (IVPP V 25883.16), b) right M1 (IVPP V 25882.17), c) left M2 (IVPP V 25883.18), d) right M2 (IVPP V 25883.7), e) left M3 (IVPP V 25883.19), f) right M3 (IVPP V 25883.20), g) left M1 (IVPP V 25883.21), h) right M1 (IVPP V 25883.8), i) left M2 (IVPP V 25883.1), j) right M2 (IVPP V 25883.22), k) left M3 (IVPP V 25883.23), l) right M2 (IVPP V 25883.2).
Text-fig. 6. Allosorex stenodus FEJFAR, 1966 – lower molars, Ivanovce, fissure 6523. a–d: m1 dext. (Z 28203 – OF 652364; a – buccal view, b – lingual view, c – occlusal view, d – distal view), e–h, o: lost m1 sin. (OF 652367; e – distal view, f, o – occlusal view, g – lingual view, h – buccal view), i–j, v: m2 dext. (Z 28206 – OF 6523; i – buccal view, j – lingual view, v – occlusal view), k–l: m1 dext. (Z 28204 – OF 6523; k – occlusal view, l – lingual view), m–n: m1 dext. (Z 28205 – OF 6523; m – occlusal view, n – buccal view), p–r: m1 sin. (Z 28213 – OF 6523; p –lingual view, q – occlusal view, r – buccal view), s–u: m1 sin. (Z 28215 – OF 652366; s – buccal view, t – lingual view, u – buccal view), w–x: m3 sin. (Z 28213 – OF 6523; w – occlusal view, x – lingual view). in Allosorex Stenodus Fejfar, 1966 (Eulipotyphla, Soricidae): Re-Description Of Type Material And Re-Interpretation Of Its Fossil Record
Text-fig. 6. Allosorex stenodus FEJFAR, 1966 – lower molars, Ivanovce, fissure 6523. a–d: m1 dext. (Z 28203 – OF 652364; a – buccal view, b – lingual view, c – occlusal view, d – distal view), e–h, o: lost m1 sin. (OF 652367; e – distal view, f, o – occlusal view, g – lingual view, h – buccal view), i–j, v: m2 dext. (Z 28206 – OF 6523; i – buccal view, j – lingual view, v – occlusal view), k–l: m1 dext. (Z 28204 – OF 6523; k – occlusal view, l – lingual view), m–n: m1 dext. (Z 28205 – OF 6523; m – occlusal view, n – buccal view), p–r: m1 sin. (Z 28213 – OF 6523; p –lingual view, q – occlusal view, r – buccal view), s–u: m1 sin. (Z 28215 – OF 652366; s – buccal view, t – lingual view, u – buccal view), w–x: m3 sin. (Z 28213 – OF 6523; w – occlusal view, x – lingual view).
Figure 12. Placoid scales. A–D, morphotype 1. A–B, A, occlusal view. B, lateral view. C–D, C, occlusal view. D, lateral view. E–H, morphotype 2. E, occlusal view. F, lateral view. G, posterior view. H, anterior view. I–L, morphotype 3. I, occlusal view. J, lateral view. K, posterior. L, anterior. M–P, morphotype 4. M, occlusal view. N, lateral view. O, posterior view. P, anterior view. Q–U, morphotype 5. Q, occlusal view. R, lateral view. S, lateral view. T, posterior view. U, anterior view. V–Y, morphotype 6. V, anterior view. W, lateral view. X, occlusal view. Y, posterior view. All scale bars equal 0.5 in Neoselachians (Chondrichthyes, Elasmobranchii) from the Lower and lower Upper Cretaceous of north-eastern Spain
Figure 12. Placoid scales. A–D, morphotype 1. A–B, A, occlusal view. B, lateral view. C–D, C, occlusal view. D, lateral view. E–H, morphotype 2. E, occlusal view. F, lateral view. G, posterior view. H, anterior view. I–L, morphotype 3. I, occlusal view. J, lateral view. K, posterior. L, anterior. M–P, morphotype 4. M, occlusal view. N, lateral view. O, posterior view. P, anterior view. Q–U, morphotype 5. Q, occlusal view. R, lateral view. S, lateral view. T, posterior view. U, anterior view. V–Y, morphotype 6. V, anterior view. W, lateral view. X, occlusal view. Y, posterior view. All scale bars equal 0.5 mm.
Viviendas de lujo en venta de E&V en Barcelona
<p>This <strong>dataset</strong> has <strong>2111</strong><strong> records</strong> and <strong>25 variables</strong> (the first one is an ID). All this information is from <strong>houses and flats for sale from</strong> the <strong>Barcelona province</strong></p> <p>The information was extracted from <strong>www.engelvoelkers.com</strong> by using <strong>webscraping</strong> with <strong>selenium</strong>.</p> <p>We didn't perform a preprocessing, so some numerical variables are strings (<em>n_rooms, n_bedrooms, n_bathrooms, useful_area, built_area, land_area, price, energy_consumption, o2_emission, terrace_area</em>)</p> <p><strong>The variables are:</strong></p> <p><em>id, eav_id, title, subtitle, n_rooms, n_bedrooms, n_bathrooms, useful_area, built_area, land_area, price, built_year, energy_class, energy_consumption, co2_emission, co2_emission_scale, protected, status, parking, garage, floor_cover, property_subclass, terrace_area, heating_type, location_status</em></p> <p><em><strong>This dataset is part of the practice 1 of the Tipología y ciclo de vida de los datos (Universitat Oberta de Catalunya)</strong></em></p>
Fig. 2 in For Est Ga Ps E Ffec T On G Ro Und V Ege Tatio N And Forest Regeneration In The Vištytgiris Botanical-Zoological Reserve
Fig. 2. Dominated tree species in small, medium-size and large forest gaps.
Fig. 3 in For Est Ga Ps E Ffec T On G Ro Und V Ege Tatio N And Forest Regeneration In The Vištytgiris Botanical-Zoological Reserve
Fig. 3. Projection coverage of ground vegetation in small, medium-size and large forest gaps.
FIGURE 1 in AVIAN FEATHER MITES (ACARI: ASTIGMATA) OF SAMSUN, TURKEY Ali T. G , Sergey V. M and Kiraz E -Y
FIGURE 1: The Kızılırmak Delta, Samsun, Turkey. The red point indicates the capture site of examined birds.
FIGURE 6. Pegomya disticha Griffiths, male terminalia. A. Tergo-sternite VI‒VIII. B. Sternite V. C. Hypopygium, caudal view. D. Same, left lateral view. E in Pegomya disticha Griffiths and P. cedrica Huckett (Diptera: Anthomyiidae) - first documented case of insects trespassing the silica barrier of Common scouringrush, Equisetum hyemale L.
FIGURE 6. Pegomya disticha Griffiths, male terminalia. A. Tergo-sternite VI‒VIII. B. Sternite V. C. Hypopygium, caudal view. D. Same, left lateral view. E. Pregonite and postgonite, left lateral view. F. Phallus and ejaculatory pump, left lateral view. Abbreviation: Tg = tergite. Same scale.
Supplementary material 1 from: Ollivier M, Kazakou E, Corbin M, Sartori K, Gooden B, Lesieur V, Thomann T, Martin J-F, Tixier MS (2020) Trait differentiation between native and introduced populations of the invasive plant Sonchus oleraceus L. (Asteraceae). NeoBiota 55: 85-115. https://doi.org/10.3897/neobiota.55.49158
Table S1. Location and climatic data for the 14 Sonchus oleraceus populations used for offspring comparisons under standardised conditions
Supplementary material 2 from: Ollivier M, Kazakou E, Corbin M, Sartori K, Gooden B, Lesieur V, Thomann T, Martin J-F, Tixier MS (2020) Trait differentiation between native and introduced populations of the invasive plant Sonchus oleraceus L. (Asteraceae). NeoBiota 55: 85-115. https://doi.org/10.3897/neobiota.55.49158
Table S2. Mean (± standard error) values for 20 traits assessed for native (Europe and North Africa) and invasive (Australia and New Zealand) populations of Sonchus oleraceus under standardised conditions
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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.