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Figure 6 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 6. Comparative sternal anatomy of the holotype of Bellulia rectusunguis gen. et sp. nov. (IVPP V17970) with selected basal ornithuromorphs. (A) Bellulia rectusunguis; (B) Archaeorhynchus spathula (modified from Zhou et al., 2013); (C) Jianchangornis microdonta; (D) Jiuquanornis niui; (E) Hongshanornis longicresta (modified from Zhou et al., 2013); (F) Yixianornis grabaui (modified from Zhou et al., 2013); (G) Gansus yumenensis; (H) Piscivoravis lii (modified from Zhou et al., 2014a); (I) Iteravis huchzermeyeri (modified from Zhou et al., 2014b); and (J) Yanornis martini (modified from Zhou et al., 2013). Line drawings are not scaled.
Figure 2 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 2. Interpretive line drawing of the holotype of Bellulia rectusunguis gen. et sp. nov., IVPP V17970. Abbreviations: ca, caudal vertebra; co, coracoid; cv, cervical vertebra; dr, dorsal rib; d I–IV, digit I–IV; fe, femur; fi, fibula; fu, furcula; ga, gastroliths; ha, haemal arch; hu, humerus; il, ilium; is, ischium; ma, manus; mt I, metatarsal I; pr, primary remiges; py, pygostyle; ra, radius; re, rectrices; rr, radiale; sc, scapula; sr, sternal rib; st, sternum; sy, synsacrum; ta, tarsometatarsus; ti, tibiotarsus; tv, thoracic vertebra; ul, ulna; ur, ulnare. Scale bar, 20 mm.
Figure 5 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 5. Comparative furcular anatomy of the holotype of Bellulia rectusunguis gen. et sp. nov. (IVPP V17970) with selected basal ornithuromorphs. (A) Bellulia rectusunguis; (B) Schizooura lii; (C) Longicrusavis houi; (D) Archaeorhynchus spathula; (E) Gansus yumenensis. Line drawings are not scaled.
Figure 4 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 4. Pelvis and hindlimb of the holotype of Bellulia rectusunguis gen. et sp. nov., IVPP V17970. (A) Photograph, and (B) line drawing of pelvis and femur; (C) close-up of the proximal end of the right tibiotarsus; (D) photograph, and (E) line drawing of the left tarsometatarsus. Abbreviations: ac, acetabulum; an, antitrochanter; ccn, cranial cnemial crest; fh, femoral head; lcn, lateral cnemial crest; mt I–IV, metatarsal I–IV; pv, proximal vascular foramen; tc, trochanter crest; tu, tubercle; other abbreviations follow in Figure 2. The arrow in (D) indicates the tubercle for insertion of the M. cranialis tibialis. Scale bar, 10 mm.
Figure 1 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 1. Photograph of the holotype of Bellulia rectusunguis gen. et sp. nov., IVPP V17970. Scale bar, 20 mm.
Figure 8 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 8. Strict consensus tree of 198 MPTs obtained from the phylogenetic analysis (tree length = 1045, consistency index = 0.352, retention index = 0.677). Bellulia rectusunguis gen. et sp. nov. is resolved in a basal position within Ornithuromorpha. Bootstrap (greater than 50%) and Bremer support values are labeled in normal and italic formats respectively near corresponding node.
Figure 7 in A new basal ornithuromorph bird (Aves: Ornithothoraces) from the Early Cretaceous of China with implication for morphology of early Ornithuromorpha
Figure 7. Photographs and line drawings of forearms of the holotype of Bellulia rectusunguis gen. et sp. nov., IVPP V17970. (A) and (B) the left wing; (C) and (D) the right hand. Abbreviations: al, alular metacarpal; al-1,2, the first and second phalanx of the alular digit; mm, major metacarpal; mm-1, 2, 3, the first, second and third phalanx of the major digit; mi, minor metacarpal; mi-1, the first phalanx of the minor digit; ol, olecranon; other abbreviations follow in Figure 2. Scale bars, 10 mm.
Fig. 2 in Ecological factors that influence sambar (Rusa unicolor) distribution and abundance in western Thailand: implications for tiger conservation
Fig. 2 The distribution of elevations at which transects were placed (a). The distribution of distances from the Huai Kha Khaeng River (HKK) at which transects were placed (b). The combinations of elevation and distance to HKK River at which pellet groups were found (each dot represents a single transect) (c). The number of pellet groups found in relation to distance from the HKK River at three elevations (where dots represents transects) (d). Dots represent transects and lines represent the predicted number of pellet groups using our top-supported model (Table 2, model 1) solved at mean covariate values and one of three elevations to illustrate the interaction of elevation with distance to the HKK River.
Fig.1 in Ecological factors that influence sambar (Rusa unicolor) distribution and abundance in western Thailand: implications for tiger conservation
Fig.1 Location of Huai Khaeng Wildlife Sanctuary in western Thailand and the 360 sampling units contained within the four areas represent six female tiger home ranges.
Fig. 79. A in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 79. A, Reconstructed major jaw muscles of Rhombomylus. B, Estimated working lines of masticatory muscles.
Fig. 78 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 78. Estimated areas of origin (A) and insertion (B, C) of jaw muscles in Rhombomylus. A, Lateral view of the skull (the skull being slightly transversely compressed). B, Lateral view of the mandible. C, Medial view of the mandible.
Fig. 77 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 77. Phylogenetically constrained distributions of selected taxa. Fine lines represent cladistic relationships of figure 74. Solid lines are geological distributions of taxa (based on McKenna and Bell, 1997).
Fig. 71 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 71. Dorsal and ventral views of metatarsals and phalanges of the left pes of Rhombomylus (IVPP V 7428). MtI–MtIV, first to fifth metatarsals; pph1, proximal phalange of hallux; pph5, proximal phalange of fifth digit; sesa, sesamoid bones; and tph1, terminal phalange of hallux.
Fig. 70 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 70. Distal, proximal, medial, and lateral views of the left mesocuneiform of Rhombomylus (IVPP V 7428). McMtII, facet for the metatarsal II; and NMe, facet for navicular.
Fig. 68 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 68. Proximal, distal, dorsal, lateral, medial, and ventral views of the left cuboid of Rhombomylus (IVPP V 7428). Acu, astragalocuboid facet; CaCu, calcaneocuboid facet; CuEc, facet for ectocuneiform; CuM45, facet for metatarsals IV and V; hook, hook extending laterally from plantar process; and pp, plantar process.
Fig. 65 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 65. Dorsal, lateral, ventral, medial, distal, and posterior views of the right astragalus of Rhombomylus (IVPP V7428). ACu, astagalocuboid facet; AFi, astragalofibular facet; Alp, lateral process of astragalus; AmT, astragalomediotarsal facet; AN, astragalonavicular facet; ATil, lateral astragalotibial facet; ATim, medial astragalotibial facet; CaA, calcaneoastragalar facet; sa, sulcus astragali; su, sustentacular facet; suh, sustentacular hinge; trlr, lateral rim of astragalar trochlea; trmr, medial rim of astragalar trochlea.
Fig. 63 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 63. Tibia and fibula of Rhombomylus (A, B, D, E, IVPP V7428; C, IVPP V7498). A1–5, Lateral, anterior, medial, posterior, and proximal views of the proximal part of a left tibia. B1–4, Posterior, anterior, medial, and distal views of the distal part of a left tibia. C, Proximal parts of right tibia and fibula in anterolateral view. D, Left tibia and fibular in distal view. E1–3, Medial, lateral, and distal views of a distal left fibula. AFi, astragalofibular facet; ATid, distal astragalotibial facet; ATil, lateral astragalotibial facet; ATim, medial astragalotibial facet; CaFi, calcaneofibular facet; Fip, proximal part
Fig. 66 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 66. Medial, dorsal, lateral, ventral, and distal views of the right calcaneus of Rhombomylus (IVPP V7428). at, anterior plantar tubercle; CaA, calcaneoastragalar facet; CaCu, calcaneocuboid facet; CaFi, calcaneofibular facet; gtff, groove for the tendon of M. flexor fibularis; gtpb, groove for the tendon of M. peroneus brevis; gtpl, groove for the tendon of M. peroneus longus; pp, peroneal process; ptca, calcaneal protuberance; su, sustentacular facet; suh, facet for the sustentacular hinge of astragalus; and sus, sustentaculum talus.
Fig. 67 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 67. Proximal, distal, lateral, medial, dorsal, and ventral views of the left navicular of Rhombomylus (IVPP V 7428). AN, astragalonavicular facet on navicular; napp, plantar process of navicular; NCs, articular facet for cuneiforms on the distal surface of navicular body; and NCu, naviculocuboid facet on the lateral surface of navicular body.
Fig. 69 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires
Fig. 69. Left ectocuneiform of Rhombomylus (IVPP V 7428). A, Proximal view (right up); B, medial view; C, distal view; D, lateral view. CuEc, facet for cuboid; EcMt, articular facet for metatarsal III; NEc, facet for navicular.
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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.