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Fig. 3 in A new cyclopoid copepod from Korean subterranean waters reveals an interesting connection with the Central Asian fauna (Crustacea: Copepoda: Cyclopoida)
Fig. 3. Monchenkocyclops changi gen. et sp. nov., holotype female: A. urosome, ventral view. B. urosome, lateral view. Arabic numerals indicating sensilla and pores consecutively from anterior to posterior end of body, and from dorsal to ventral side (excluding appendages). Scale bars 100 µm.
Fig. 2 in A new cyclopoid copepod from Korean subterranean waters reveals an interesting connection with the Central Asian fauna (Crustacea: Copepoda: Cyclopoida)
Fig. 2. Monchenkocyclops changi gen. et sp. nov., holotype female: A. cephalothoracic shield, lateral view. B. cephalothorax, dorsal view. C. pleurons of free prosomites, lateral view. D. rostrum, dissected and flattened, original anterior view. E. pleuron of second free prosomite (third pedigerous somite), dissected and flattened. Arabic numerals indicating sensilla and pores consecutively from anterior to posterior end of body, and from dorsal to ventral side (excluding appendages). Scale bars 100 µm.
Fig. 26 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Fig. 26. Distribution of Plusiocampinae (Plusiocampa Silvestri, 1912 and Hystrichocampa Condé, 1962) in Central Europe; blue indicates karst regions.
Figs 18–23 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 18–23. Plusiocampa (Plusiocampa) dobati Condé in Dobat, 1975. 18. Cupuliform organ of the last antennomere. 19. Central cylindrical structure of an olfatory chemoreceptor sensillum of the cupuliform organ. 20. Gouge sensilla. 21. Frontal process. 22. Telotarsal end of metathoracic leg. 23. Detail of telotarsal claw. Scale bars in µm.
Figs 13–17 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 13–17. Plusiocampa (Pentachaetocampa) inopinata subgen. et sp. nov. 13. Tarsal end of metathoracic leg. 14. Detail of telotarsal claw. 15. Urosternites I-II of a female. 16. g 1 -glandular setae of urosternite I of a female. 17. Stylus of urosternite VII. Scale bars in µm.
Figs 24–25 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 24–25. Plusiocampa (Plusiocampa) dobati Condé in Dobat, 1975. Urosternite I. 24. Male. 25. Female. a 1 = a 1 -glandular setae. Scale bars = 0.1 mm.
Figs 5–6 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 5–6. Plusiocampa (Pentachaetocampa) inopinata subgen. et sp. nov. Urosternite I. 5. Male. 6. Female. a 1 = a 1 -glandular setae, g 1 = g 1 -glandular setae. Scale bars: = 0.1 mm.
Figs 7-12 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 7-12. Plusiocampa (Pentachaetocampa) inopinata subgen. et sp. nov. 7–8. Metanotum. 7. Macrosetae la 1,2,3 and mp. 8. Detail of surface. 9. Cupuliform organ of last antennomere. 10. Sensillum of cupuliform organ. 11. Gouge sensilla. 12. Metathoracic leg. Scale bars in µm.
Figs 3–4 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 3–4. Plusiocampa (Pentachaetocampa) inopinata subgen. et sp. nov., holotype, ♀. 3. Pro-, meso- and metanotum, left side. 4. Urotergites I–IX, left side. Scale bars = 0.2 mm.
Figs 1–2 in An unexpected discovery of a new subgenus and a species of Plusiocampa (Campodeidae, Diplura) alongside an overview of Central European subterranean campodeids
Figs 1–2. Plusiocampa (Pentachaetocampa) inopinata subgen. et sp. nov. 1. On a clay surface. 2. On the surface of a puddle from Schallsinger Höhle. Courtesy of Mirjam Widmer. Scale bars = 2 mm.
Fig. 6 in Taxonomic revision of the subterranean genus Virpazaria Gittenberger, 1969 (Gastropoda, Spelaeodiscidae)
Fig. 6. Shells of Virpazaria (Aemiliella) ripkeni Gittenberger, 1969. A–E. Holotype (NHMW 77153). F. Paratype (NHMW 77153a). G. Malkolaj (HNHM 103437). H–I. Gadoc (HNHM 103429). J. Drisht (HNHM 104392). K. Holotype of V. pastorpueri Reischütz et al., 2011 (NHMW 107855). L. Kruni i Baksit (HNHM 103433). Scale bar = 1 mm.
Figure 3. The effective population size through recent time for 3 in Comparative analyses of past population dynamics between two subterranean zokor species and the response to climate changes
Figure 3. The effective population size through recent time for 3 clades of Gansu zokor (Eospalax cansus).
Figure 7 in Subterranean fauna from Siberia and Russian Far East
Figure 7. On the left: - Isopoda Janiridae Mackinia continentalis Birstein & Ljovuschkin, 1965, from a small cave near Boetc-Kuznetcovo, Far East. On the right: - Isopoda Asellidae Sibirasellus parpurae Henry & Magniez, 1993, from a pit-hole, Primory, Far East.
Figure 3 in Subterranean fauna from Siberia and Russian Far East
Figure 3. Main caves on the Irkutsk Plateform (after Trofimova, 1996, and Pulina, 2005; drawing Bernard Juberthie and George Nazareanu).
Figure 2 in Subterranean fauna from Siberia and Russian Far East
Figure 2. Karts of the Irkutsk plateform. 1. Karstic regions with limestone, dolomite, gypsum and anhydrite. 2. Potential karstic regions. I. Southern part of the Irkutsk plateform. II. Western region of the Khamar-Daban Mts. III. Tounkinsk Alps. IV. Around Niznieudinsk (after Marian Pulina, Karstologia, 2005).
Figure 1 in Subterranean fauna from Siberia and Russian Far East
Figure 1. Karst of Siberia and Russian Far East. – 1. Carbonated rocks and locally sulfated (studied and recorded). – 2. Carbonated rocks and locally sulfated (estimated). – 3. Sulfated rocks (salt). – Numbers: 4 – Altai, Kuznetski, Saiansk. – 5. Irkutsk Plateform. – 6. Patomskoye Mountains. – 7. Middle Lena valley. – 8. Anabar region. – 9. Anhydrite karst of Kempendal. – 10. Anhydrite karst of Norwinsk. – 11. Gypsum and Anhydrite karst of the Poutoran Plateau. – 12. Karst of the Uchur and Maia rivers and valleys. – 13. Amur, Khor valleys and Sikhote-Alin Mountain ridge (after Pulina, 2005; modified; map Bernard Juberthie).
Figure 5 in Subterranean fauna from Siberia and Russian Far East
Figure 5. Ulsinsk karstic region, Mar-Kyouzl Plateau. Karstic lake (1), The Aardach River (2), Ponor (3), Subterranean stream of the Aardach River and Selendinskye karstic spring (6), Dolines (4 -5) (after Bersenev 1989; Pulina 2005).
Figure 9 in Subterranean fauna from Siberia and Russian Far East
Figure 9. Amphipoda Pseudocrangonyctidae Procangronyx primoryensis Stock & Young Won Jo, 1990, from a pithole, Primory, Far East.
Figure 8. Amphipoda Pseudocrangonyctidae Pseudocrangonyx febras Sidorov, 2009, from a in Subterranean fauna from Siberia and Russian Far East
Figure 8. Amphipoda Pseudocrangonyctidae Pseudocrangonyx febras Sidorov, 2009, from a pit-hole, Primory, Far East.
Figure 4 in Subterranean fauna from Siberia and Russian Far East
Figure 4. Regions with main caves in the Far East. – 1. Uchur-Maya karst. – 2. Ulsinsk karst. - A. Leno-Aldanskyi. B. Aldano-Stanovoyi. C. Amuro-Ochotskyi. D. Buryenskyi. E. Shikote-Alin Mountain ridge. F. Sakhalin Island (after Bersenev, 1989 and Pulina, 2005; drawing Bernard Juberthie and George Nasareanu).
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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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.