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156 results for “Plio-Pleistocene”
Fig. 1. Measurement scheme for the canid radius, illustrated using a in Ecomorphology of radii in Canidae: Application to fragmentary fossils from Plio-Pleistocene hominin assemblages
Fig. 1. Measurement scheme for the canid radius, illustrated using a left radius of Cuon alpinus, NHMUK M1888.2.5.22_159.d, in posterior view (A1), proximal (A2) and distal (A3) end; lateral view proximal (B1) and distal (B2) end; distal view of radius lower extremity (C), proximal (D) and distal (E) views of radius epiphyses. Not to scale. Explanation of radial measurements 1–29 in Table 1.
Fig. 2 in Ecomorphology of radii in Canidae: Application to fragmentary fossils from Plio-Pleistocene hominin assemblages
Fig. 2. Plot of the first two linear discriminant functions extracted from a combination of radial measurements used to classify genera within Canidae.
Fig. 5 in Ecomorphology of radii in Canidae: Application to fragmentary fossils from Plio-Pleistocene hominin assemblages
Fig. 5. Neighbour-joining cluster analysis performed using Euclidean distances extracted from proximal measurements. Bootstrap values show the support for each internal node.
FIGURE 7. Artiodactyla and Perissodactyla from the Drimolen Makondo assemblage. 1 and 2, DNM 143-1 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 7. Artiodactyla and Perissodactyla from the Drimolen Makondo assemblage. 1 and 2, DNM 143-1, Hippotragus sp. partial horn core; 1, lateral and 2, anterior views. 3–5, DNM 57, Metridiochoerus sp. right maxillary third premolar; 3, lingual, 4, occlusal, and 5, buccal views. 6 and 7, cf. Eurygnathohippus cornelianus left proximal fourth metatarsal; 6, medial and 7, posterior views. Scale bars equal 1 cm.
FIGURE 4. Vulpes chama craniodental specimens from the Drimolen Makondo. 1 and 2, DNM 471-1 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 4. Vulpes chama craniodental specimens from the Drimolen Makondo. 1 and 2, DNM 471-1, partial cranium; 1, dorsal and 2, left lateral views. 3 and 4, DNM 471-2, right maxilla; 3, buccal and 4, occlusal views. 5 and 6, DNM 471-3, right mandible; 5, buccal and 6, lingual views. Scale bars equal 1 cm.
FIGURE 5 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 5. Dinofelis sp. postcranial specimens from the Drimolen Makondo. 1–6, DNM 2, left second metatarsal; 1, proximal and 2, distal articular surfaces, 3, medial, 4, dorsal, 5, ventral, and 6, lateral views. 7, DNM 54-1 and 54-2, left calcaneus in articulation; anterior view. Scale bars equal 1 cm.
FIGURE 3 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 3. Cercopithecoides sp. craniodental specimens from the Drimolen Makondo. 1 and 2, DNM 1, partial mandible; 1, dorsal and 2, right lateral views. 3 and 4, DNM 95, right premaxilla and maxilla; 3, labial and 4, lingual views. Scale bars equal 1 cm.
FIGURE 2 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 2. The Drimolen Makondo deposit and features at the end of the 2014 excavation season. Fossils were recovered from decalcified deposits adhering to the walls of the Main Makondo in 2013 and mainly from within the northern and eastern portions of the Eastern Makondo in 2014. While the fossils are defined as having come from different makondo features these solution tubes have all been formed within the same depositional unit of the Drimolen Makondo.
FIGURE 1. 1 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 1. 1, Location of Drimolen compared to Pretoria in the NE and Krugersdorp in the SW as well as other fossil sites in the UNESCO Cradle of Humankind World Heritage Area (Google Earth). 2, Google Earth image of the Drimolen hominin site showing the relationship of the Main Quarry (DMMQ) site from which the hominins have been recovered and the new Makondo site (DMK) that is the focus of this paper. T represents the location of Andre Keyser's preliminary excavation trench, the white arrow indicates the view in Figure 1.3. 3, the Makondo excavations in progress in 2014 showing the various Makondo features from which the fossils were recovered and looking east. In Figure 1.3 (4) denotes the location of Figure 1.4. 4, In situ fossils during excavation in 2014, showing the heavy manganese staining and concentration of fossils.
FIGURE 6 in First description of in situ primate and faunal remains from the Plio-Pleistocene Drimolen Makondo palaeocave infill, Gauteng, South Africa
FIGURE 6. Chasmaporthetes?nitidula postcranial specimens from the Drimolen Makondo. 1–5, DNM 3-4, partial left fourth metatarsal; 1, proximal articular surface, 2, lateral, 3, ventral, 4, dorsal, and 5, medial views. 6–8, DNM 3-3, pedal proximal phalanx; 6, dorsal, 7, lateral, and 8, ventral views. 9–11, DNM 3-2, pedal middle phalanx; 9, dorsal, 10, lateral, and 11, ventral views. 12–14, DNM 3-6, pedal terminal phalanx; 12, dorsal, 13, lateral, and 14, ventral views. Scale bars equal 1 cm.
Fig. 23 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 23. Cluster analyses of 98 variables measured on leporid hind limb. Cluster for os coxae (A), femur (B), tibia (C), calcaneus (D), talus (E), metatarsals (F), pes, tarsus excluded (G) and general cluster for all variables used in the analyses (H). Species abbreviations: Hber, Hypolagus beremendensis; Ocun, Oryctolagus cuniculus; Pfur, Pentalagus furnessi; Sflo, Sylvilagus floridanus; Leur, Lepus europaeus.
Fig. 12 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 12. Morphology of right calcaneus of Hypolagus beremendensis (Kormos, 1930), ISEZ MF/2220/ca/77, Węże 1, Pliocene, Poland, in medial (A), dorsal (B), and lateral (C) views, and explanatory drawings highlighting articular surfaces (A2, B2, C2).
Fig. 16 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 16. Box plots of cuboidal indices. Median, range and 50%−segment of values are given. Values above the 90th and below the 10th percentile are plotted as points. Species abbreviations: Hber, Hypolagus beremendensis; Ocun, Oryctolagus cuniculus; Pfur, Pentalagus furnessi; Sflo, Sylvilagus floridanus; Leur, Lepus europaeus.
Fig. 13 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 13. Morphology of left naviculare of Hypolagus beremendensis (Kormos, 1930), ISEZ MF/2224/na/2, Rębielice Królewskie 1, late Pliocene, Poland, in dorsal (A), plantar (B), lateral (C), medial (D), proximal (E), and distal (F) views, and explanatory drawings with articular surfaces marked (A2–F2).
Fig. 10 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 10. Morphology of left talus of Hypolagus beremendensis (Kormos, 1930), ISEZ MF/2224/ta/12, Rębielice Królewskie 1, late Pliocene, Poland, in dorsal (A), plantar (B), lateral (C), and medial (D) views, and explanatory drawings with articular surfaces marked (A2–D2).
Fig. 17 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 17. Morphology of right lateral cuneiform of Hypolagus beremendensis (Kormos, 1930), ISEZ MF/2220/cn/1, Węże 1, Pliocene, Poland, in dorsal (A), plantar (B), medial (C), lateral (D), proximal (E), and distal (F) views, and explanatory drawings with articular surfaces marked (A2–F2).
Fig. 20 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 20. Box plots of the indices of slenderness for metatarsal bones. Note the low index of slenderness of metatarsal II for Hypolagus beremendensis (A). Median, range and 50%−segment of values are given. Values above the 90th and below the 10th percentile are plotted as points. Species abbreviations: Hber, Hypolagus beremendensis; Ocun, Oryctolagus cuniculus; Pfur, Pentalagus furnessi; Sflo, Sylvilagus floridanus; Leur, Lepus europaeus.
Fig. 9 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 9. Box plots of talar indices. Median, range and 50%−segment of values are given. Values above the 90th and below the 10th percentile are plotted as points. Species abbreviations: Hber, Hypolagus beremendensis; Ocun, Oryctolagus cuniculus; Pfur, Pentalagus furnessi; Sflo, Sylvilagus floridanus; Leur, Lepus europaeus.
Fig. 8 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 8. Schematic drawing of pes structure in leporids, showing the arrangement of tarsal bones. Distal phalanges not shown.
Fig. 5 in The hind limb skeleton and cursorial adaptations of the Plio-Pleistocene rabbit Hypolagus beremendensis
Fig. 5. Box plots of femoral indices. Note the low value of Ife2 (A), Ife5 (E), and Ife6 (F) for Hypolagus beremendensis. Median, range and 50%−segment of values are given. Values above the 90th and below the 10th percentile are plotted as points. Species abbreviations: Hber, Hypolagus beremendensis; Ocun, Oryctolagus cuniculus; Pfur, Pentalagus furnessi; Sflo, Sylvilagus floridanus; Leur, Lepus europaeus.
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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
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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.