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3,136 results for “Terrestrialization”
FIGURE 2 in A review of the biological diversity and distribution of small mammal taxa in the terrestrial ecoregions and protected areas of Nepal 3072
FIGURE 2. The geopolitical position of Nepal in 1816.
FIGURE 1 in A review of the biological diversity and distribution of small mammal taxa in the terrestrial ecoregions and protected areas of Nepal 3072
FIGURE 1. Geopolitical divisions in the Indian Subcontinent, 1800.
FIGURE 2 in The terrestrial herpetofauna of Torres and Banks Groups (northern Vanuatu), with report of a new species for Vanuatu
FIGURE 2. Dorsal view of Lepidodactylus guppyi (MNHN 2007.1422) from Hiu Island, Torres Islands.
FIGURE 3 in The terrestrial herpetofauna of Torres and Banks Groups (northern Vanuatu), with report of a new species for Vanuatu
FIGURE 3. Ventral view of Lepidodactylus guppyi (MNHN 2007.1422) from Hiu Island, Torres Islands.
Figure 3 in Terrestrial isopods (Crustacea: Isopoda: Oniscidea) from Brazilian caves
Figure 3. Miktoniscus medcofi (Van Name, 1940), ♂: A, pereopod 1; B, pereopod 6; C, pereopod 7.
FIGURE 7 in Terrestrial Isopods from Spanish Amber (Crustacea: Oniscidea): Insights into the Cretaceous Soil Biota
FIGURE 7. Camera lucida drawings of Autrigoniscus resinicola, new genus and species, family Trichoniscidae (holotype, MCNA 12522, male). A. Lateral habitus, with magnified area showing details of endopod of first pair of pleopods. B. Dorsal habitus, with magnified area showing details of antennule. C. Fifth pereopod in ventral view, with magnified area showing details of modified carpus. Scale bar = 0.5 mm (all panels to the same scale).
FIGURE 8 in Terrestrial Isopods from Spanish Amber (Crustacea: Oniscidea): Insights into the Cretaceous Soil Biota
FIGURE 8. Detail microphotographs of Autrigoniscus resinicola, new genus and species, family Trichoniscidae (holotype, MCNA 12522, male). A. Head in dorsal view, showing the antennule (arrowhead). B. Semicircular scales and triangular-shaped scale setae in ventral view. C. Carpus of pereopods 5 and 6 in ventral view, showing the distal process (arrowheads). D. Simple dactylus of pereopods 2 and 3 in lateral view. E. Uropods in dorsal view. F. Endopod of first pair of pleopods in lateral view. Figures made with consecutive photographs taken at successive focal planes. Scale bars: A–D, F = 0.05 mm; E = 0.1 mm.
FIGURE 1 in Description of a new diatom species-Microcostatus dexteri sp. nov.-from terrestrial habitats in southern Poland
FIGURE 1. Map showing locations of sampling sites.
FIGURE. Numbers of terrestrial, climbing, lithophytic and epiphytic orchid species in Myanmar. in Annotated List of Orchidaceae for Myanmar
FIGURE. Numbers of terrestrial, climbing, lithophytic and epiphytic orchid species in Myanmar.
Figure 14 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 14. Articular movement of the pteroid. A, lateral view of the right distal syncarpal, medial carpal, and pteroid of Coloborhynchus robustus, with the carpopteroid joint positioned at maximum extension (pteroid at maximum elevation), showing the position of the joint axis. The pteroid points forwards and downwards 15° below the horizontal. B, (A) in dorsal view, also showing the radius, ulna, proximal syncarpal, and wing metacarpal, with all joints in their respective close-packed positions. C, (A) in anterior view. D, lateral view of the wrist, with the carpopteroid joint partially flexed (pteroid at maximum depression). The pteroid points downwards 50° below the horizontal. E, dorsal view of (D). F, anterior view of (D). The pteroid is beginning to swing medially, towards the body. G, Lateral view of the wrist, with the carpopteroid joint at maximum flexion. H, dorsal view of (G), with the pteroid apparently pointing medially. I, anterior view of (G), showing the true ventromedial orientation of the pteroid at maximum flexion. The pteroid points downwards 25° below the horizontal. For a list of anatomical/arthrological abbreviations, see Appendix 1.
Figure 3 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 3. Reconstruction of the axial skeleton and left wing of Anhanguera santanae in dorsal view (A), and a virtual fleshed-out reconstruction of the axial skeleton and right wing in ventral (B), and anterior (C) views. Principal limb bones are laid out end-to-end. For a list of anatomical/arthrological abbreviations, see Appendix 1. Scale bar: 500 mm.
Figure 4 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 4. Linear scatter plots of log-transformed length measurements of the long bones of selected ornithocheirid specimens from the Santana Formation. A, scapula. B, humerus. C, radius. D, wing-metacarpal. E, wing-finger phalanx 1. F, wing-finger phalanx 2. G, wing-finger phalanx 3. H, femur. I, tibiotarsus.
Figure 6 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 6. Diagrammatic anterior view of the left pectoral girdle of a typical ornithocheirid. For a list of anatomical/ arthrological abbreviations, see Appendix 1.
Figure 28 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 28. As in Fig. 27, but with the humeri at the limit of depression and protraction, and the elbows set 10° short of the limit of flexion. Scale bar: 500 mm.
Figure 12 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 12. Reconstruction of the right wrist of Coloborhynchus robustus in dorsal view according to descriptions provided by Bennett (2001, 2006), with a sesamoid bone within the distal cotyle of the medial carpal, and the pteroid articulating on the side of the medial carpal. The postulated trajectory of the wing-finger metacarpal extensor tendon, in which the sesamoid is embedded, is also shown. For a list of anatomical/arthrological abbreviations, see Appendix 1. Scale bar: 50 mm.
Figure 20 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 20. Methods of achieving longitudinal balance and positive stability without a tail. A, sweepback coupled with washout. The aft-situated tips are at a negative incidence with respect to the forward-situated wing root. B, reflex camber.
Figure 16. A in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 16. A, reconstructed articular surfaces of the right knuckle joint of Coloborhynchus robustus. Elements are oriented as in Figure 7: wing metacarpal in lateral view and wing-finger phalanx 1 in medial view. Scale bar: 50 mm. B, diagrammatic representation of (A), showing contact areas in the close-packed position and the joint axis. C, right wing metacarpal and wing-finger phalanx 1 in the close-packed position in dorsal aspect, viewed along the joint axis. D, Right wing metacarpal and wing-finger phalanx 1 at maximum flexion in dorsal aspect, viewed along the joint axis, which remains fixed with respect to the wing metacarpal throughout flexion. E, cross section X–X′ of the wing metacarpal viewed medially, with the proximal end of wing-finger phalanx 1 behind, and with the knuckle joint at maximum extension. F, Cross section X–X′ of the wing metacarpal viewed medially, with the proximal end of wing-finger phalanx 1 viewed from behind, with the knuckle joint at maximum flexion. The broken line indicates the position that wing-finger phalanx 1 would take if no conjunct rotation took place during flexion: this position is impossible, as the posterior part of the articular head of wing-finger phalanx 1 would overlap the shaft of the wing metacarpal. For a list of anatomical/ arthrological abbreviations, see Appendix 1.
Figure 17 in Three-dimensional geometry of a pterosaur wing skeleton, and its implications for aerial and terrestrial locomotion
Figure 17. Three-dimensional virtual model of Anhanguera santanae, showing the positions and orientations of the principal joint axes of the limbs. For a list of anatomical/arthrological abbreviations, see Appendix 1.
Figure 7 from: Rybak M, Kochman-Kędziora N, Peszek Ł (2021) Description of four new terrestrial diatom species from Luticola and Microcostatus genera from South Africa. PhytoKeys 182: 1-26. https://doi.org/10.3897/phytokeys.181.65326
Figure 7 LM images of associated diatom flora A–DPinnularia borealis Ehrenberg sensu latoE–LPinnularia sp. M–TNitzschia brevissima Grunow U–XHantzschia amphioxys (Ehrenberg) Grunow. Scale bar: 10 µm.
Figure 1 from: Rybak M, Kochman-Kędziora N, Peszek Ł (2021) Description of four new terrestrial diatom species from Luticola and Microcostatus genera from South Africa. PhytoKeys 182: 1-26. https://doi.org/10.3897/phytokeys.181.65326
Figure 1 A–AD Holotype population of Luticola microcephala M. Rybak, Peszek & Kochman-Kędziora, sp. nov. A–VLM images of valve views W–ADSEM images W–X external view of valves Y external view of frustule girdle view Z partial valve view and girdle view of middle frustule section AA central area with several shallow depressions AB raphe structure with detailed view on distal raphe endings AC proximal raphe endings AD internal view of valve. Scale bars: 10 µm (A–Y), 5 µm (Z–AA), 4 µm (AB), 3 µm (AC, AD).
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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.