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Fig. 3. Crassatelline bivalves from Central and South America. A, B in Fossil Cenozoic crassatelline bivalves from Peru: New species and generic insights
Fig. 3. Crassatelline bivalves from Central and South America. A, B. Kalolophus antillarum (Reeve, 1842). A. UWBM 101885, Recent, Pacific coast of Panama; exterior (A1) and interior (A2) of left valve. B. UWBM 101884, Recent, Venezuela; dorsal view of paired valves, anterior at right. C. Hybolophus berryi (Spieker, 1922), USNM 562399, early Miocene, lower Zorritos Formation, Zorritos, Peru; exterior of left valve (C1), dorsal view of paired valves C2), anterior at right. D. Hybolophus elassa Woodring, 1982, USNM 647424, late Miocene, Gatun Formation, Panama; exterior of left valve. E. Kalolophus mediamaricanus (Brown and Pilsbry, 1913), USNM 647421, early Miocene, La Boca Formation, Panama; exterior of right valve. F. Kalolophus sp., USNM 647423, late Miocene, middle Gatun Formation, Panama; exterior (F1) and interior (F2) of left valve. G. Kalolophus jamaicensis (Dall, 1903), USNM 135683, Pliocene, Bowden Formation, Jamaica; interior of left valve. H. Kalolophus speciosus (Adams, 1854), SBMNH 140817, Recent, Panama City, Florida; exterior (H1) and interior (H2) of left valve; dorsal view of paired valves (H3), anterior at right. Scale bars 10 mm.
Fig. 4. Crassatelline bivalves from Florida. A−D in Fossil Cenozoic crassatelline bivalves from Peru: New species and generic insights
Fig. 4. Crassatelline bivalves from Florida. A−D. Crassatella portelli sp. nov., early Oligocene, Suwannee limestone. A. UF 26990a, holotype, exterior A1) and interior (A2), and dorsal margin (A3) of left valve. B. UF 32046b, paratype, dorsal margin of right valve. C. UF 27019, paratype, exterior (C1) and interior (C2) of right valve. D. UF 26990b, paratype, interior of left valve. E−H. Kalolophus chipolanus (Dall, 1903), early Miocene, Chipola Formation. E. USNM 114713c, exterior of left valve (E1), interior (E2). F. UF 85322l, interior of left valve. G. USNM 114713a, holotype, exterior (G1), interior (G2), and dorsal margin (G3) of right valve. H. UF 85322f, exterior of left valve. Scale bars 10 mm.
Fig. 7 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 7. Dental elements of the proboscidean Chilgatherium harrisi Sanders, Kappelman, and Rasmussen, 2004, from the Upper Guang and Gahar Valley sections (late Oligocene), Chilga region, Ethiopia. A. Right P3 (CH9–22) reversed for consistency. B. Left P4 (CH9–7). C. Protoloph of left?M2 (CH12–4). D. Right M3 (CH35–1) reversed for consistency. E. Tritolophid of right m1 (CH35–3d) reversed for consistency. F. Left m2 (CH35–3a). G. Right m3 (CH35–3c) reversed for consistency. All in occlusal views. Dental elements of the proboscidean Arcanotherium savagei (Court, 1995), from the Evaporite Unit (early Oligocene) of Dor El Talha, Libya. H. Right p2, p3, m1, m3 and left p4, m2 (BMNH M. 82165) in occlusal view (p4 and m2 reversed for consistency).
Fig. 5 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 5. Ulnae of the proboscidean Arcanotherium savagei (Court, 1995), from the Idam Unit (early Oligocene) of Dor El Talha, Libya. A. Left ulna (BMNH M. 82176) in anterior (A1), lateral (A2), and proximal (A3) views. B. Left ulna (BMNH M. 82175), repaired since its first publication (Court 1995) in anterior (B1), lateral (B2), and proximal (B3) views.
Fig. 4 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 4. Atlas (BMNH M. 82173) of the proboscidean Arcanotherium savagei (Court, 1995) from the Idam Unit (early Oligocene) of Dor El Talha, Libya in anterior (A), posterior (B) dorsal (C), and lateral (D) views.
Fig. 1 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 1. Holotype mandible (BMNH M. 82163a, b, c) of the proboscidean Arcanotherium savagei (Court, 1995), from the Idam Unit (early Oligocene) of Dor El Talha, Libya in occlusal (A), lateral (B), reconstructed occlusal (C) views.
Fig. 2 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 2. Mandibular elements of the proboscidean Arcanotherium savagei (Court, 1995), from the Evaporite Unit (late Eocene) of Dor El Talha, Libya. A. Symphysis (BMNH M. 82164) in occlusal (A1), lateral (A2), and anterior (A3) views; uncrushed incisor loci are outlined in white on A3. B. Part of right mandibular ramus (BMNH M. 82166) with erupting m2 and p4 in occlusal (B1) and lateral (B2) views.
Fig. 6 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 6. Phylogenetic relationships among early tethytheres. Most parsimonious tree (L = 381; CI = 0.64; RI = 0.70) obtained from 207 morphological characters. Nodes are identified by letters (A to L). Bremer support is indicated in black under each node.
Fig. 3 in Reassessment of the generic attribution of Numidotherium savagei and the homologies of lower incisors in proboscideans
Fig. 3. Dental elements of the proboscidean Arcanotherium savagei (Court, 1995), from the Evaporite (A and C, late Eocene) and Idam (B, early Oligocene) units of Dor El Talha, Libya. A. Erupting left i1 (BMNH M. 82183) in occlusal (A1), lateral (A2), and anterior (A3) views. B. Right M1 (BMNH M. 82172) in buccal (B1), occlusal (B2), and lingual (B3) views. C. Right M2 (BMNH M. 82398) in buccal (C1), occlusal (C2), and lingual (C3) views. D. Left M3 (MNHN LBE 20) in buccal (D1), occlusal (D2), and lingual (D3) views.
FIGURE 12 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 12. Intraspecific wing venation pattern variability in Dixidae. 1-2, Wings from two different individuals of Dixella nova (USNM01193745, USNM01193785, ♀, ♂, respectively; NY). 3-4, Wings from two different individuals of Dixa terna (USNM01193791, USNM01193792, ♂, ♂, respectively; PA & VA). 5-6, Wings from two different individuals of Dixa rhathyme (USNM01193798, USNM01193868,?, ♀, respectively; CA). 7-8, Wings from two different individuals of Dixella obscura (USNM01193908, USNM01193974,?, ♀, respectively; AZ & AK). Collection localities are in parentheses. Arrows and arrowheads denote specific points of variation. Abbreviations: AK = Alaska, AZ = Arizona, CA = California, NY = New York, PA = Pennsylvania, VA = Virginia, USA.
FIGURE 9 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 9. Morphological features of Dixella curvistyla. 1, Head and antennae; 2, Terminalia. The arrow points to the apical lobe of the gonocoxite. Scale bars equal 0.5 mm (1) and 0.2 mm (2).
FIGURE 7 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 7. Morphological features of Dixa eomarginata. 1, Wing with an emarginate posterior margin (arrowhead); arrows denote an apparent false vein posterior to vein M. 2, Terminalia. Scale bars equal 1.0 mm (1) and 0.25 mm (2).
FIGURE 5 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 5. The terminalia of Dixa intacta. 1, Posterior portion of abdomen including the spermatheca; 2, Cerci. Scale bars equal 0.5 mm (1) and 0.05 mm (2).
FIGURE 4 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 4. Tarsal claw teeth of the Kishenehn Dixella. 1, Dixella intacta left metatarsal claw; 2, D. curvistyla left metatarsal claw; 3, D. spinilobata right metatarsal claw. Arrows point to teeth. Scale bars equals 50 μm.
FIGURE 3 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 3. Line drawings of wings. 1, Dixella intacta; 2, D. eomarginata; 3, D. curvistyla. Wing venation is from McAlpine (1981). Scale bar equals 1 mm.
FIGURE 2 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 2. Morphological features of Dixa intacta. 1, Antennae with individual flagellomeres delineated; 2, Dorsal aspect of the thorax. Scale bars equal 0.5 mm for both figures.
FIGURE 11 in The first fossil New World Dixidae with a critical discussion of generic definitions
FIGURE 11. Morphological features of Dixella spinilobata. 1, Photograph of the terminalia; spiniform apical lobe marked with an arrow; 2, Line drawing of a partial reconstruction of the right portion of the terminalia (dorsal view). Scale bar equals 0.25 mm.
Figures 205–211 in An overview of genera and subgenera of the Asura / Miltochrista generic complex (Lepidoptera, Erebidae, Arctiinae). Part 1. Barsine Walker, 1854 sensu lato, Asura Walker, 1854 and related genera, with descriptions of twenty new genera, ten new subgenera and a check list of taxa of the Asura / Miltochrista generic complex
Figures 205–211. Type species of genera of the Asura / Miltochrista generic complex: female genitalia.
Figures 166–173 in An overview of genera and subgenera of the Asura / Miltochrista generic complex (Lepidoptera, Erebidae, Arctiinae). Part 1. Barsine Walker, 1854 sensu lato, Asura Walker, 1854 and related genera, with descriptions of twenty new genera, ten new subgenera and a check list of taxa of the Asura / Miltochrista generic complex
Figures 166–173. Members of the Asura / Miltochrista generic complex: female genitalia. 166–171, 173 – type species of genera and subgenera.
Figures 198–204 in An overview of genera and subgenera of the Asura / Miltochrista generic complex (Lepidoptera, Erebidae, Arctiinae). Part 1. Barsine Walker, 1854 sensu lato, Asura Walker, 1854 and related genera, with descriptions of twenty new genera, ten new subgenera and a check list of taxa of the Asura / Miltochrista generic complex
Figures 198–204. Type species of genera of the Asura / Miltochrista generic complex: female genitalia.
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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.