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1,036 results for “Late Miocene”
Figure 9 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 9. Bones of the caudal extremity of Teruelictis riparius from La Roma 2. A, B, RO-4739, baculum in (A) left and (B) right views. C, D, RO-4707, fragment of left coxal in (C) medial and (D) lateral views. E–G, RO-4689, right femur in (E) cranial, (F) lateral, and (G) caudal views. H–J, RO-4943 and RO-4721, almost complete left tibia in (H) cranial, (I) caudal, and (J) craniolateral views.
Figure 14 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 14. Comparison between right femora (A–E) and left tibiae (F–J) of Teruelictis riparius from La Roma 2 and extant otters, in cranial view. A, F, Lutra lutra. B, G, Lontra canadensis. C, H, Aonyx cinereus. D, I, Martes martes. E, J, Teruelictis riparius.
Figure 4 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 4. Skull and mandible of Teruelictis riparius from La Roma 2. A, RO-4937, skull in ventral view. B–D, RO-4744, right hemimandible with first lower incisor to second lower molar in (B) lingual, (C) buccal, and (D) occlusal views.
Figure 5 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 5. Vertebrae of Teruelictis riparius from La Roma 2. A, B, RO-4712, lumbar vertebra in (A) lateral and (B) dorsal views. C, D, RO-4573, proximal caudal vertebra in (C) ventral and (D) lateral views. E, F, RO-4734, middle caudal vertebra in (E) dorsal and (F) ventral views.
Figure 12 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 12. Selected phalanges of Teruelictis riparius from La Roma 2. A, B, RO-4564, proximal phalanx in (A) dorsal and (B) palmar/plantar views. C, D, RO-4601, middle phalanx in (C) dorsal and (D) palmar/plantar views. E, F, RO-4697, middle phalanx in (E) dorsal and (F) palmar/plantar views. G, H, RO-4615, proximal phalanx in (G) dorsal and (H) palmar/plantar views. I, J, RO-4518, distal phalanx in lateral views. K, L, RO-4520, proximal phalanx of the right pollex in (K) dorsal and (L) palmar views. M, N, RO-4767, distal phalanx in lateral views.
Figure 8 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 8. Metacarpals (Mcs) of Teruelictis riparius from La Roma 2. A–C, RO-4741, left Mc II in (A) dorsal, (B) medial, and (C) lateral views. D–F, RO-4742, left Mc III in (D) dorsal, (E) medial, and (F) lateral views. G–I, RO-4773, left Mc IV in (G) dorsal, (H) medial, and (I) lateral views. J–L, RO-4774, left Mc V in (J) dorsal, (K) medial, and (L) lateral views.
Figure 13 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 13. Comparison between the lower dentition of Teruelictis riparius and Paralutra jaegeri. A, B, detailed view of the right hemimandible RO-4744 of Teruelictis riparius from La Roma 2 showing lower fourth premolar (p4) and lower first molar (m1) in (A) occlusal and (B) buccal views. C, D, reversed view of a cast of the fragment of hemimandible of Par. jaegeri from Pellecahus described by Roman & Viret (1934), in (C) occlusal and (D) buccal views. E, F, reversed view of a cast of the specimen MHNL no. Lgr 1296 of Par. jaegeri from La Grive Saint-Alban (France) in (E) occlusal and (F) buccal views. G, H, SMNS 16813, right m1 of Par. jaegeri from Steinheim (Germany) in (G) occlusal and (H) buccal views.
Figure 16 in A non-aquatic otter (Mammalia, Carnivora, Mustelidae) from the Late Miocene (Vallesian, MN 10) of La Roma 2 (Alfambra, Teruel, Spain): systematics and functional anatomy
Figure 16. Comparison between right talii of Teruelictis riparius from La Roma 2 and extant Mustelidae shown at the same size, in (A–E) plantar and (F–J) dorsal views. A, F, Teruelictis riparius. B, G, Gulo gulo. C, H, Meles meles. D, I, Aonyx cinereus. E, J, Lutra lutra.
Figure 2 in New remains of a gavialoid crocodilian from the late Oligocene-early Miocene of the Pirabas Formation, Brazil
Figure 2. Gavialoid indet., partial symphyseal portion of mandible, MPEG 1130-V: A, ventral view and A1, schematic ventral view; B, lingual view and B1 schematic ventral view; C, right lateral view.
Figure 1 in New remains of a gavialoid crocodilian from the late Oligocene-early Miocene of the Pirabas Formation, Brazil
Figure 1. Summary map of the study region in north-east South America, showing the localities discussed in the text.
Figure 3 in Mandibular biomechanics of Crocuta crocuta, Canis lupus, and the late Miocene Dinocrocuta gigantea (Carnivora, Mammalia)
Figure 3. Stress distributions in the mandible of Crocuta crocuta in A, p3; B, p4, and C, m1 biting scenarios. Colour spectrum represents stress magnitude, with blue as low stress and white relatively high stress.
Figure 6 in Mandibular biomechanics of Crocuta crocuta, Canis lupus, and the late Miocene Dinocrocuta gigantea (Carnivora, Mammalia)
Figure 6. Cross-section strain profiles for (from left to right): p3–p4, p4–m1, and post-m1 interdental spaces in A, Crocuta crocuta, B, Dinocrocuta gigantea, and C, Canis lupus during a p3 bite. View is from rostral towards caudal; buccal is to the right.
Figure 2 in Mandibular biomechanics of Crocuta crocuta, Canis lupus, and the late Miocene Dinocrocuta gigantea (Carnivora, Mammalia)
Figure 2. Muscle attachment sites on the mandible finite element models, with Crocuta crocuta as an example. The light areas on top of the ascending ramus and in the mandibular fossa are attachment sites for the temporalis. The light area on the angular process is the attachment site of the masseter. The internal pterygoid attachment (not shown) is on the medial side of the angular process.
Figure 5 in Mandibular biomechanics of Crocuta crocuta, Canis lupus, and the late Miocene Dinocrocuta gigantea (Carnivora, Mammalia)
Figure 5. Median strain values at different bite positions for Crocuta crocuta (open diamond), Canis lupus (filled triangle), and Dinocrocuta gigantea (open square).
Figure 1 in Mandibular biomechanics of Crocuta crocuta, Canis lupus, and the late Miocene Dinocrocuta gigantea (Carnivora, Mammalia)
Figure 1. Photos of specimens used in the study. A, Crocuta crocuta [LACM(Mamm) 30655], left mandible; B, Dinocrocuta gigantea (IVPP V15649), right mandible; C, Canis lupus [LACM(Mamm) 23010], left mandible. Specimens are scaled to approximately the same length in figure. Scale bars [over carnassial tooth (m1)] = 10 mm.
Late Eocene–early Miocene evolution of the southern Australian Subtropical Front: a marine palynological approach
<p>Supplementary dataset for the publication in Journal of Micropalaeontology (JM): "Late Eocene–early Miocene evolution of the southern Australian Subtropical Front: a marine palynological approach" </p> <p>Supplementary Table 1: Age model table of paleomagnetic reversals and biostratigraphic events from planktic foraminifera, dinocysts, and calcareous nannofossils (Pfuhl and McCave, 2003; Sluijs et al., 2003; Stickley et al., 2004b; Pross et al., 2012; Houben et al., 2019). Including the updated GTS2012 timescale converted ages.</p> <p>Supplementary Table 2: Total palynomorph assemblage counts ODP Site 1168 (877–334 m b.s.f.) and the relative abundance of selected dinocyst groups (Table 1).</p> <p>Supplementary Table 3: The calculated relative abundance of dinocyst assemblage groups per time phase from the drill sites in the Tasmanian Gateway region, portrayed in Fig. 6.</p>
FIGURE 5 in Sturgeons (Acipenseridae) from the Late Miocene of Ukraine, with a discussion of materials associated with Widhalm's (1886) nomen nudum, †Acipenser euhuso
FIGURE 5. Isolated nearly complete "Acipenser-like" pectoral-fin spine from the Pontian of Ukraine in A, lateral, B, ventral, and C, medial views (PM ONU 3475/48). Scale bars in all equal 20 mm.
FIGURE 1 in Sturgeons (Acipenseridae) from the Late Miocene of Ukraine, with a discussion of materials associated with Widhalm's (1886) nomen nudum, †Acipenser euhuso
FIGURE 1. Palaeogeographical map of Eastern Europe (after Popov et al., 2004, modified). The yellow star in white circle indicates the studied locality.
FIGURE 12 in Sturgeons (Acipenseridae) from the Late Miocene of Ukraine, with a discussion of materials associated with Widhalm's (1886) nomen nudum, †Acipenser euhuso
FIGURE 12. Widhalm's Plate 3. A, medial view of right dentary. B, ventral view of left dentary. C, parasphenoid in ventral view. D, dorsal and E, ventral view of the dermopalatine and ectopterygoid process (terminology follows Hilton et al., 2011).
FIGURE 3 in Sturgeons (Acipenseridae) from the Late Miocene of Ukraine, with a discussion of materials associated with Widhalm's (1886) nomen nudum, †Acipenser euhuso
FIGURE 3. Fragmentary parasphenoids of a sturgeon (Acipenseridae indeterminate genus) from the Pontian of Ukraine. A, dorsal (=internal) surface of the body of the parasphenoid, proximal portions of the ascending rami, and the right posterior process (PM ONU 3475/43). B, ventral surface of the central portion of a parasphenoid, showing the aortic notch and foramina for the efferent branchial arteries (PM ONU 3475/44). C, poorly preserved posterior processes of a parasphenoid (PM ONU 3475/45). Abbreviations: an, aortic notch; arp, ascending ramus of the parasphenoid; feba, foramen for the efferent branchial artery. Scale bars in all equal 20 mm.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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