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13,397 results for “sp. nov.”
Fig. 1 in Fig. 2. Gonadal development during Yntema stages 15, 17, 19 in Bruggmanniella sanlianensis Lin, Yang & Tokuda, 2020, sp. nov.
Fig. 1. Collection sites for specimens of Austruca citrus n. sp. and A. perplexa (H. Milne Edwards, 1852) used in this study: blue solid squares (nos. 1–3) for A. citrus and pink solid circles (nos. 4–33) for A. perplexa (see Table 1). Blue empty square and pink empty circles indicate additional records of the two species from other references (see synonymy under A. perplexa). Different lines indicate the updated ranges of the two species.
Fig. 6. G1s in Fig. 2. Gonadal development during Yntema stages 15, 17, 19 in Bruggmanniella sanlianensis Lin, Yang & Tokuda, 2020, sp. nov.
Fig. 6. G1s of Austruca citrus n. sp. (A–D, J) and A. perplexa (H. Milne Edwards, 1852) (E–I). A–D, G–J, right G1; E–F, left G1. A, E, mesial view; B, G–J, mesial view of distal part; C, F, lateral view D, lateral view of distal part. A–D, holotype, CW 10.9 mm, MNHN-IU-2017-9121, Wallis & Futuna; J, paratype, CW 12.0 mm, MNHN IU-2017-9123, Wallis & Futuna; E–F, paralectotype, MNHN-IU-2008-10646, CW ~15–16 mm, Java; G, CW 15.2 mm, ZRC 2020.0288, Singapore; H, CW 17.5 mm, NCHUZOOL 14636; I, CW 12.5 mm, QM W19270. Scale bars: A–D = 2.0 mm; G–J = 0.5 mm.
Fig. 3 in Fig. 2. Gonadal development during Yntema stages 15, 17, 19 in Bruggmanniella sanlianensis Lin, Yang & Tokuda, 2020, sp. nov.
Fig. 3. The syntypes of Gelasimus perplexus H. Milne Edwards, 1852 (MNHN-IU-2008-10646). A–C, male paralectotype, rehydrated specimen; D–E, male lectotype, dry specimen. A, B, outer and inner surfaces of major cheliped (PL 17 mm); C, broken carapace, CW ~15–16 mm; D, carapace, CW 13.8 mm; E, outer surface of major cheliped, PL 25.7 mm.
Fig. 4 in Fig. 2. Gonadal development during Yntema stages 15, 17, 19 in Bruggmanniella sanlianensis Lin, Yang & Tokuda, 2020, sp. nov.
Fig. 4. Holotype of Austruca citrus n. sp. (MNHN-IU-2017-9121; CW 10.9 mm). A, dorsal view; B, major chela; C, pleon and telson; D, third maxillipeds. Scale bars: A, B = 5.0 mm; C, D = 2.0 mm.
Fig. 10 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 10. Distribution of stranded/bycaught sea turtles in different towns in Yilan County. Location of each coastal township in Yilan County is showed in the upper right figure.
Fig. 9 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 9. Number of the total and each species of sea turtle from bycatch by coastal fishing gears from 1997 to 2019 in Taiwan. Data on total and each species showed in mean and standard deviation, and n = 23.
Fig. 8 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 8. Distribution of stranded/bycaught sea turtles in different districts in New Taipei City. Location of each coastal district in New Taipei City is showed in the upper right figure.
Fig. 6 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 6. Number of stranded/bycaught turtles in different counties of the total and of each species from 1997 to 2019 in Taiwan. The region of each county belongs are underlined with thick line.
Fig. 5 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 5 Monthly changes in stranding/bycatch turtles from 2015 to 2019 in Taiwan. Data of total and each species showed in mean and standard deviation, and n = 60.
Fig. 4 in Hylomus saiyans Nguyen & Nguyen & Nguyen & Phung 2019, sp. nov.
Fig. 4 Number of stranded/salvaged turtles of different size range of the total and of each species from 1997 to 2019 in Taiwan. Table 1. Sex ratio (female: male) of the five species of sea turtle
Fig. 6 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 6. Ophichthus rutidoderma (Bleeker, 1852), OIM-E.55787, 278 mm TL; (a) Lateral view of head (a) preserved in formalin 10%, (b) vertebral column of preanal region.
Fig. 2 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 2 Lateral view of head (a), teeth on maxilla and palatal area (b) and mandible (c) of Ophichthus vietnamensis sp. nov., OIM-Fi.04600, holotype, 387 mm TL. IO-infraorbital pores, M-mandibular pores, POP-preopercular pores, SO- supraorbital pores, ST- supratemporal pore. Arrows indicate interorbital (left) and mid-supratemporal (right) pores.
Fig. 7 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 7. Pie chart of the prevalence of hermit crab species for each peltogastrids in Korea, Japan, and Taiwan. The pie chart of Japan was derived from Nagasawa et al. (1996) and Yoshida et al. (2011 2014). The pie chart of Taiwan was derived from Yoshida et al. (2012).
Fig. 6 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 6. Distribution map of three peltogastrids in East Asia. The distribution of countries besides Korea was derived from Nagasawa et al. (1996) and Yoshida et al. (2011 2012 2014).
Fig. 5. Korean peltogastrids. A in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 5. Korean peltogastrids. A, Peltogaster lineata on Pagurus brachiomastus and its mantle, MADBK 430101_001; B, Peltogaster postica on Pagurus filholi, MADBK 160707_009; C, mantle of B; D, Peltogaster aff. ovalis on Pagurus rathbuni, EVOSYS 260720#013; E, mantle of D; F, G, Peltogaster aff. reticulatus on Pagurus proximus and its mantle, MADBK 160718_040; H, Peltogaster sp. 2 on Areopaguristes nigroapiculus and its mantle, EVOSYS 260510#008; I, Peltogasterella gracilis on Pagurus pectinatus, MADBK 160715_016; J, mantle of I; K, Peltogasterella aff. gracilis on Porcellanopagurus nihonkaiensis, MADBK 160730_002.
Fig. 2 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 2. Semi-diagrammatic figures of mantle aperture of Korean peltogastrids. A, Peltogaster lineata; B, Peltogaster postica; C, Peltogaster aff. ovalis; D, Peltogaster aff. reticulatus; E, Peltogaster sp. 2; F, Peltogasterella gracilis; a, mantle opening; b, mantle. Comparative degree of mantle projection and shape of mantle opening are the most important characters on morphological identification of this study.
Fig. 1 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 1. Ophicihthus vietnamensis sp. nov. (a). OIM-E.55769, holotype, 387 mm TL, fresh; (b, c). OIM-E.55768, paratype, 421 mm TL, fresh. A anus and D dorsal-fin origin.
Fig. 7 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 7. Lynceus amplopedia sp. nov., female, stereo microscopy (paratype NHMD-615845). A, right lateral view (right carapace valve removed); B, rostrum, left lateral view; C, ventral view, valve removed; D, telson and right side posterior thoracopods with lamina abdominalis consisting of 4 dorsal and 3 marginal extensions; E, carapace, left valve, interior.
Fig. 4 in Fig. 3 in Pomacea occulta Salazar-Vallejo 2023, nov. sp.
Fig. 4. Probability of sexual differentiation related to total length of A. marmorata collected from three rivers on Amami-Oshima Island, Japan. The black lines and shaded areas indicate the regression lines and 95% confidential intervals, respectively.
Fig. 6 in Ophiacantha scissionis Lee & Stöhr & Bae & Shin 2019, sp. nov.
Fig. 6. Lynceus amplopedia sp. nov., modified male thoracopods, scanning electron microscopy (paratype NHMD-615845). A–C: explanate modified thoracopods (left side); D–G: spinose modified thoracopods (right side). A, thoracopods II-X, left side, median (inner) view, thoracopods III and IV with enlarged endites 4–5 (and endopod); B, magnification of setae on thoracopod V endite 5; C, lateral (outer) view, thoracopods V and VI with exopods with digitiform processes; D, thoracopods II-X, right side, median (inner) view, thoracopods V and VI with characteristic stout spines; E, higher magnification of endite 4 of thoracopods V and VI and their stout spines; F, spines on thoracopod V endite 4 (magnification of E); G, spines on thoracopod VI endite 4 (lower encircled area in E). Abbreviations: e4–e5 = endites 4–5, T2–T6 = thoracopods II–VI.
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Allen Brain Atlas
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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.