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1,608 results for “Far East”
Figs 1–6. Synanthedon spp. 1–2 – S. bastak O in A new species of the genus Synanthedon Hübner, 1819 (Lepidoptera: Sesiidae) from the Russian Far East
Figs 1–6. Synanthedon spp. 1–2 – S. bastak O. Gorbunov et Koshkin, sp. n., holotype ♂, Sesiidae picture No. 0005-0006–2023; alar expanse 20.5 mm; 3–4 – S. soffneri Špatenka, 1983, Russia: Moscow Region, Serebryano-Prudsky District, Lishnyagi, 54°23.89ʹ N, 038°32.15ʹ E, 172 m, 08.VI.2021, O. Gorbunov leg., picture No. 0243-0244–2021; alar expanse 19.7 mm; 5–6 – S. spatenkai O. Gorbunov, 1991, holotype ♂, Sesiidae picture No. 0011-0012–2023; alar expanse 19.4 mm. 1, 3, 5 – dorsal view; 2, 4, 6 – ventral view.
Figs 43–47 in Estimation of biomass of dung beetles (Coleoptera: Scarabaeoidea) from the Russian Far East
Figs 43–47. Models of length-weight relationship and functions for a medium tunnelers (n=988) dung-beetles (log-logarithmic transformation data): 43 – linear function model (R2=0.8622, AIC=11.06); 44 – quadratic function model (R2=0.8638, AIC=12.99); 45 – power function model (R2=0.8639, AIC=12.99); 46 – exponential function model (R2=0.8609, AIC=13.14); 47 – logistic function model (R2=0.8632, AIC=13.02).
Figs 37–42 in Estimation of biomass of dung beetles (Coleoptera: Scarabaeoidea) from the Russian Far East
Figs 37–42. Models of length-weight relationship and functions for a large tunnelers (Fig. 37, n=598) and a medium tunnelers (Figs 38–42, n=988) dung-beetles: 37 – loglogarithmic transformation data; 38–42 – untransformed data; 37 – logistic function model (R2=0.5743, AIC=28.57); 38 – linear function model (R2=0.8348, AIC=5807.50); 39 – quadratic function model (R2=0.8419, AIC=5560.30); 40 – power function model (R2=0.8419, AIC=5560.10); 41 – exponential function model (R2=0.8418, AIC=5562.10); 42 – logistic function model (R2=0.8406, AIC=5607).
Figs 1–8 in A new species of the genus Epischidia Rebel, 1901 (Lepidoptera: Pyraloidea, Pyralidae) from the Russian Far East
Figs 1–8. Epischidia margaritae sp. n.: 1 – holotype, adult male; 2 – paratype, adult female; 3 – head, lateral view; 4, 5 – male genitalia: 4 – armature genitals, 5 – aedeagus; 6 – female genitalia.
Figs 19–24 in Estimation of biomass of dung beetles (Coleoptera: Scarabaeoidea) from the Russian Far East
Figs 19–24. Models of length-weight relationship and functions for a large dwellers (n=599) dung-beetles: 19–22 – untransformed data; 23, 24 – log-logarithmic transformation data; 19 – quadratic function model (R2=0.5353, AIC=11484); 20 – power function model (R2=0.5353, AIC=11483); 21 – exponential function model (R2=0.5355, AIC=11479); 22 – logistic function model (R2=0.5352, AIC=11486); 23 – linear function model (R2=0.5150, AIC=8.57); 24 – quadratic function model (R2=0.5160, AIC=10.58).
FIG. 2 in Bathyal Rissoidae (Gastropoda: Rissooidea) off the Russian Far East coast of the Sea of Japan, with redescription of Punctulum reticulatum Golikov, 1986
FIG. 2. Species of Rissoidae. A. Punctulum akibai (Yokoyama, 1926), SoJaBio stn. A2-10 (455-456 m), MIBM 39336. B. Punctulum nihonkaiensis (Hasegawa, 2014), SoJaBio stn. A2-10 (455-456 m), MIBM 39337. C-D. Frigidoalvania asura (Yokoyama, 1926), SoJaBio stn. B7-7 (470-528 m), MIBM 39340. E-F. Frigidoalvania tanseimaruae Hasegawa, 2014, SoJaBio stn. B6-7 (1,001-1,011 m). G-J. Punctulum flavum (Okutani, 1964); G-H, "shallow-water form", SoJaBio stn. A2-10 (455-456 m), MIBM 14270; I-J, "deep-water form", SoJaBio stn. A6-7 (2,511-2,534 m), MIBM 39334. All at the same scale; scale = 1 mm. РИС. 2. Виды Rissoidae. A. Punctulum akibai (Yokoyama, 1926), SoJaBio ст. A2-10 (455-456 м), MIBM 39336.B. Punctulum nihonkaiensis (Hasegawa, 2014), SoJaBio ст. A2-10 (455-456 м), MIBM 39337. C-D. Frigidoalvania asura (Yokoyama, 1926), SoJaBio ст. B7-7 (470-528 м), MIBM 39340. E-F. Frigidoalvania tanseimaruae Hasegawa, 2014, SoJaBio ст. B6-7 (1001-1011 м). G-J. Punctulum flavum (Okutani, 1964); G-H, "мелководнаЯ форма", SoJaBio ст. A2-10 (455-456 м), MIBM 14270; I-J, "глубоководнаЯ форма", SoJaBio ст. A6-7 (2511-2534 м), MIBM 39334. Все раковины в одном масШтабе, масШтабнаЯ линейка = 1 мм.
FIG. 3. Punctulum reticulatum Golikov, 1986. A-D. SoJaBio stn. A2-10 in Bathyal Rissoidae (Gastropoda: Rissooidea) off the Russian Far East coast of the Sea of Japan, with redescription of Punctulum reticulatum Golikov, 1986
FIG. 3. Punctulum reticulatum Golikov, 1986. A-D. SoJaBio stn. A2-10 (455–456 m), MIBM 39338. E-F. SoJaBio stn. B7-7 (470–528 m), MIBM 39343. G-I. Holotype, ZIN 36574/3. All at the same scale, scale = 1 mm; except for D, scale, 200 µm. РИС. 3. Punctulum reticulatum Golikov, 1986. A-D. SoJaBio ст. A2-10 (455–456 м), MIBM 39338. E-F. SoJaBio ст. B7-7 (470–528 м), MIBM 39343. G-I. Голотип, ZIN 36574/3.
Figure 7 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 7 Stylostomes of Neotrombicula talmiensis(Schluger, 1955) larvae in the skin of the Asian chipmunkTamias sibiricus(Laxmann, 1769). Histological sections of aural cavity. Azure II-Eosin. A – Young stylostome composed of one eosinophil cone with the already developed feeding cavity situated within the upper epidermal layers. Note the grayish substance underneath the eosinophil cone arrow(). Scale bar – 50 μm; B – Young stylostome at the initial stage of development with the nearly empty feeding cavity underneath it. Note that the pale-grey substance
Figure 6 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 6 Skin injury of the Asian chipmunkTamias sibiricus(Laxmann, 1769) during feeding ofNeotrombicula talmiensis(Schluger, 1955) larvae. Histological sections of aural cavity. Azure II-Eosin. A - General view of aural cavity damaged by numerous feeding larvae. Note the differently developed stylostomes evolving within scabs. Scale bar – 500 μm; B – Two young closely disposed stylostomes evolving within epidermis. Note the numerous larvae at different feeding stages occupying the aural cavity. The feeding cavity is barely expressed. Scale bar 200 μm; C – Two young stylostomes of the recently attached larvae at different developmental stages evolving within the epidermis showing the large feeding cavity filled with numerous inflammatory cells. — car – aural cartilage, der – dermis, ec – eosinophil cone, ep – epidermis fc – feeding cavity, lar – larvae, sb – scab, st – stylostome, stc – stratum corneum
Figure 5 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 5 Skin injury of voles Myodes rufocanusSundevall, 1846 and stylostomes ofNeotrombicula talmiensis(Schluger, 1955) larvae. Histological sections. Azure II-Eosin. A – Several stylostomes evolving in both hypertrophic epidermis and penetrating into the strongly expressed feeding cavities filled with numerous infiltrating cells and cell debris. Note the grayish substance at the periphery of stylostomesarrows(). Scale bar – 100 μm; B – Two closely disposed stylostomes evolving within the cell association of the broken inflammatory and epidermal cells (arrows). Scale bar – 50 μm; C – Three differently arranged stylostomes evolving within the pronounced feeding cavity tightly packed with the broken inflammatory and epidermal cells fused to form a scab. Note the grayish substance at the periphery of stylostomesarrows(). Scale
Figure 4 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 4 Stylostomes of Neotrombicula talmiensis(Schluger, 1955) larvae in the skin of volesMyodes rufocanusSundevall, 1846. Histological sections. Azure II-Eosin. A – Young stylostome evolved in the hypertrophic stratum corneum. Note the active stratum lucidum surrounding growing stylostome and feeding cavity filled with a flocculent material without inflammatory cells. Stylostome canal is also empty. Scale bar
Figure 3 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 3 Skin injury of voles Myodes rufocanusSundevall, 1846 during feeding ofNeotrombicula talmiensis(Schluger, 1955) larvae. Histological sections of aural cavity. Azure II-Eosin. A – General view of aural cavity damaged by feeding larvae. Scale bar – 200 μm; B
Figure 2 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 2 Cheliceral blades and sites of attachment ofNeotrombicula talmiensis(Schluger, 1955) larvae. SEM. A – Cheliceral blades, dorsal view. Arrows show two small barbs on the tip of the cheliceral blades, the third barb is not visible.Arrowheadpoints to a groove on the medial surface of the cheliceral blade. Scale bar – 10 μm; B – Cheliceral blades, lateral view.Arrows indicate hardly noticeable barbs on the tip of the cheliceral blades (tricuspid cap). Scale bar – 10 μm; C – Sites of the larval attachment on the vole skin (arrows). Scale bar – 40 μm; D
Figure 1 in Stylostome of the trombiculid mite larvaeNeotrombicula talmiensis (Schluger, 1955) (Acariformes, Trombiculidae) feeding on two host species in the Russian Far East
Figure 1 Organization ofNeotrombicula talmiensis(Schluger, 1955) larvae. SEM. A – Scutum (one of sensilla broken). Scale bar – 40 μm; B – Paired eye and posterolateral seta of scutum.Arrow points to a pore on the scutal surface. Scale bar – 10 μm; C – Gnathosoma, dorsal view (palpal claws not visible). Arrows show branched setae on palpal femur, genu, and tibia (ventral seta of tibia and palpal tarsus not shown
Text-fig. 2. Map of Partizansk coal basin with early angiosperm localities. a: Severosuchan Formation, Aptian; b: Frentsevka Formation, early-middle Albian. 1 – Novoveselaya village; 2 – 3rd Kamenka River; 3 – Bolshoy Kuvshin; 4 – Andreev Inlet. in Angiosperm Diversification In The Early Cretaceous Of Primorye, Far East Of Russia
Text-fig. 2. Map of Partizansk coal basin with early angiosperm localities. a: Severosuchan Formation, Aptian; b: Frentsevka Formation, early-middle Albian. 1 – Novoveselaya village; 2 – 3rd Kamenka River; 3 – Bolshoy Kuvshin; 4 – Andreev Inlet.
Text-fig. 4. Porechye open pit coal mine. a: photography of the Lipovtsy Formation section; b: stratigraphic column, 1 – sandstone, 2 – conglomerate, 3 – coal, 4 – tuff dated by U-Th-Pb geochronology, 5 – siltstone, 6 – mudstone, 7 – palynological samples with angiosperm pollen, 8 – dispersed angiosperm cuticles. in Angiosperm Diversification In The Early Cretaceous Of Primorye, Far East Of Russia
Text-fig. 4. Porechye open pit coal mine. a: photography of the Lipovtsy Formation section; b: stratigraphic column, 1 – sandstone, 2 – conglomerate, 3 – coal, 4 – tuff dated by U-Th-Pb geochronology, 5 – siltstone, 6 – mudstone, 7 – palynological samples with angiosperm pollen, 8 – dispersed angiosperm cuticles.
Text-fig. 3. Map of Razdolnaya coal basin with early angiosperm localities. a: Lipovtsy Formation, Aptian; b: Galenki Formation, early-middle Albian. 1 – Porechye coal mine; 2 – Konstantinovka; 3 – Aleksee-Nikolskoe coal mine; 4 – Fedorovsky Rudnik; 5 – Podgorodenka coalfield; 6 – Firsov Cape. in Angiosperm Diversification In The Early Cretaceous Of Primorye, Far East Of Russia
Text-fig. 3. Map of Razdolnaya coal basin with early angiosperm localities. a: Lipovtsy Formation, Aptian; b: Galenki Formation, early-middle Albian. 1 – Porechye coal mine; 2 – Konstantinovka; 3 – Aleksee-Nikolskoe coal mine; 4 – Fedorovsky Rudnik; 5 – Podgorodenka coalfield; 6 – Firsov Cape.
Fig. 1 in Association of the louse-flies of the genus Ornothoctona Speiser, 1902 (Diptera: Hippoboscidae) with birds and first record of O. australasiae (Fabricius, 1805) from the Russian Far East
Fig. 1. Ornithoctona australasiae (Fabricius, 1805), specimen from Kunashir (photo by V. Neimorovits).
Figs 10–16 in New taxa of the gall midges of the tribe Asynaptini (Diptera: Cecidomyiidae, Porricondylinae) from the Russian Far East
Figs 10–16. Niladmirara devergentia sp. n., male holotype. 10 – genitalia; 11 – F9; 12 – F2; 13 – pedicel and F1; 14 – mouth parts and palpi; 15 – tarsal claw; 16 – wing. Scale bars =
Figs 1–9 in New taxa of the gall midges of the tribe Asynaptini (Diptera: Cecidomyiidae, Porricondylinae) from the Russian Far East
Figs 1–9. Niladmirara metula sp. n., male holotype. 1 – genitalia; 2 – F5; 3 – F9; 4 – F13-F16 of left antenna; 5 – F14-F15 of right antenna; 6–7 – tarsal claw; 8 – wing; 9 – head. Scale bars = 0.1 mm.
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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.