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Figure 11 in A methane seep from the deep-marine, late Eocene Keasey Formation, Rock Creek, Columbia County, Oregon
Figure 11. Depiction of solemyid burrow (Fig. 11A, from Hickman 1984) and lucinid burrow (Fig. 11B, from Hickman 1994, 2003b). Such burrows span oxic-anoxic boundaries to provide their symbionts with sulfide from the sediment and oxygen from the water column and as well as meeting their own oxygen needs. The presence of an articulated fossil solemyid in life position (i.e. in situ) indicates the presence of an ancient oxic-anoxic interface, regardless of whether the burrow is clearly preserved. Extensive bioturbation characteristic of the massive Keasey siltstone and mudstone units is likely to obliterate uncemented burrow ichnofabrics of solemyids. See Droser & Bottjer (1989) for history of bioturbation. On the other hand, burrows of decapods are more likely to be preserved since decapod crustaceans secrete a calcareous cement that prevents burrows from caving — e.g. collophanite (an amorphous calcium phosphate). See Weimer and Hoyt (1964).
Figure 1 in A methane seep from the deep-marine, late Eocene Keasey Formation, Rock Creek, Columbia County, Oregon
Figure 1.. Field area maps. A. Study site location in the vicinity of Vernonia, northwest Oregon State, U.S.A. B. Detail of UCMP IP localities along Rock Creek 8 kilometers west of Vernonia. UCMP IP locality 16636 at the west end is from the base of the measured section (Fig. 2) while UCMP IP locality 16621 is from the top of the measured section. The Main Seep Site is located between collections UCMP IP localities 16630 and 16621. C. Geologic map along Rock Creek from Vernonia to the former town of Keasey. Geology generalized from mapping by Alan Niem in Wells et al. (2020). Abbreviated geologic units in the map include the following: Qaf = Holocene and Pleistocene alluvial fan deposits; Qls = Holocene and Pleistocene landslide deposits; Qt = Holocene and Pleistocene talus; Qtd = Holocene and Pleistocene terrace deposits. M22= macrofauna locality from Warren et al. (1945) and benthic foraminiferal localities 249-251 and 239-247 from McDougall (1979).
Figure 2 in A methane seep from the deep-marine, late Eocene Keasey Formation, Rock Creek, Columbia County, Oregon
Figure 2. Stratigraphic section of the Keasey Formation in the vicinity of the Rock Creek seep site, showing position of UCMP localities. Yellow highlighted area above the upper turbidite bed is the equivalent stratigraphic positions of the Main and Second Seep Sites, whereas the minor yellow highlighted area just below the upper turbidite gives the stratigraphic position of small blebby concretions defining the Third Seep Site
Figure 9 in A methane seep from the deep-marine, late Eocene Keasey Formation, Rock Creek, Columbia County, Oregon
Figure 9. Map occurrences of major macrofaunal elements and associations at the cold seep horizon in limestone, muddy siltstone, and siltstone facies and exemplar outcrops of non-chemosymbiotic. A. byssally attached bivalves from the Mud Pecten Association; C, D, E, M. Suspension-feeding heterodont bivalve association; B, F, L, deposit-feeding Protobranch Association; G, H I, J, chemosymbiotic Thyasirid-Solemyid Association; K. Turrid–Naticid–Epitoniid Association.
Dataset for "From Halos to Galaxies. X: Decoding Galaxy SEDs with Physical Priors and Accurate Star Formation History Reconstruction"
<p>This deposit contains the data related to the manuscript "<em>From Halos to Galaxies. X: Decoding Galaxy SEDs with Physical Priors and Accurate Star Formation History Reconstruction</em>" submitted to the Astrophysical Journal. It includes the basic SDSS identifier, stellar mass, star formation rate, fractional formation time, and their errors. A detailed description can be found in Table 1 of the manuscript.</p> <p>The data is stored in a CSV file. It can be read with standard data analysis packages like <a href="https://pandas.pydata.org/docs/reference/api/pandas.read_csv.html">Pandas</a> in Python. </p> <p>This deposit has also be updated to include a machine-readable table that follows the standards of the AAS Journals and Vizier (<span>datafile1_ApJ57534.mrt). More information on this standard can be found in the <a href="https://journals.aas.org/mrt-overview/">AAS</a> or <a href="http://cds.u-strasbg.fr/doc/catstd.htx">CDS</a> documentation. This format can be read in Python with packages like <a href="https://docs.astropy.org/en/stable/api/astropy.io.ascii.Mrt.html">astropy</a>. </span></p>
Fig. 8. Amphicticeps dorog, n in Amphicticeps and Amphicynodon (Arctoidea, Carnivora) from Hsanda Gol Formation, Central Mongolia and Phylogeny of Basal Arctoids with Comments on Zoogeography
Fig. 8. Amphicticeps dorog, n.sp. A, lateral view of upper teeth, MAE SG.9194, holotype; B, lateral view of anterior ramal fragment, MAE SG.91.9192; C, occlusal view of upper teeth, MAE SG.9194, holotype, stereophotos; D, occlusal (stereophoto), E, lingual, F, labial views of lower jaw fragment, AMNH 21672. Scales 5 10 mm; top scale is for B, middle scale for A, C–D, and lower scale for E and F.
Fig. 14 in Amphicticeps and Amphicynodon (Arctoidea, Carnivora) from Hsanda Gol Formation, Central Mongolia and Phylogeny of Basal Arctoids with Comments on Zoogeography
Fig. 14. Stereophotos of a cast of PIN 475–3016 (holotype of Cynodictis mongoliensis Janovskaja, 1970). A, occlusal view of upper teeth and B, occlusal view of lower teeth. Scales 5 10 mm.
Fig. 5 in Amphicticeps and Amphicynodon (Arctoidea, Carnivora) from Hsanda Gol Formation, Central Mongolia and Phylogeny of Basal Arctoids with Comments on Zoogeography
Fig. 5. Ventrolateral view of the right side of the basicranium of Amphicticeps shackelfordi, AMNH 19010, holotype. The region near the postglenoid process is reconstructed from that of the left side. cfn, canal for facial nerve; cica, canal for internal carotid artery; er, epitympanic recess; fc, fenestra cochleae (fenestra rotunda); fo, foramen ovale; fs, fossa for stapedius muscle; ftt, fossa for tensor tympani muscle; fv, fenestra vestibuli (fenestra ovalis); Gf, Glaserian fissure; ips, inferior petrosal sinus; mlf, middle lacerate foramen; mp, mastoid process; pf, promontory foramen; pgf, postglenoid foramen; plf, posterior lacerate foramen; pp, paroccipital process; pr, promontorium; sf, suprameatal fossa.
Fig. 13 in Amphicticeps and Amphicynodon (Arctoidea, Carnivora) from Hsanda Gol Formation, Central Mongolia and Phylogeny of Basal Arctoids with Comments on Zoogeography
Fig. 13. Teeth and lower jaw of Amphicynodon teilhardi. A, lateral view of upper teeth, PST 17/ 34; B, occlusal view of upper teeth, PIN 475–1388; C, occlusal view of upper teeth, PST 17/34, stereophotos; D, occlusal view of lower teeth, AMNH 19007, holotype, stereophotos; E, lingual, and F, labial views of lower jaw, AMNH 19007, holotype. All, except E and F, are photographs of a polyester cast. Scales 5 10 mm.
Growth-related formation mechanism of I3-type basal stacking fault in epitaxially grown hexagonal Ge-2H
<p>The hexagonal-2H crystal phase of Ge recently emerged as a promising direct bandgap semiconductor in the mid-infrared range providing new prospects of additional opto-electronic functionalities of group-IV semiconductors (Ge and SiGe). The controlled synthesis of such hexagonal (2H) Ge phase is a challenge that can be overcome by using wurtzite GaAs nanowires as a template. However, depending on growth conditions, unusual basal stacking faults (BSFs) of I<sub>3</sub>-type are formed in the metastable 2H structure. The growth of such core/shell heterostructures is observed <em>in situ</em> and in real-time by means of environmental transmission electron microscopy using chemical vapour deposition. The observations provide direct evidence of a step-flow growth of Ge-2H epilayers and reveal the growth-related formation of I<sub>3</sub>-BSF during unstable growth. Their formation conditions are dynamically investigated. Through these <em>in situ</em> observations, we can propose a scenario for the nucleation of I<sub>3</sub>-type BSFs that is likely valid for any metastable hexagonal 2H or wurtzite structures grown on m-plane substrates. Conditions are identified to avoid their formation for perfect crystalline synthesis of SiGe-2H.</p> <p>This data set contains all the processed supporting videos of in-situ TEM observations .</p> <p> </p>
Figure 21 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 21. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), possible fragment of anterior pubic process in A, lateral, B, medial, C, anterior and D, posterior views. Views assume that the distal end is to the left. Abbreviation: py, pyrite. Scale bar ¼ 50 mm.
Figure 23 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 23. Three cladograms depicting the phylogenetic relationships of Brighstoneus simmondsi. A, strict consensus tree based on the matrix of Xu et al. (2018) with two additional characters added. Tree length ¼ 338 steps, consistency index ¼ 0.583, rescaled consistency index ¼ 0.510, retention index ¼ 0.874; B, section of strict consensus tree obtained after excluding new nasal character (124) and ilium character (125). Bootstrap values given above line, Bremer support below line; C, section of 50% majority rule consensus of 10 MPTs (for full tree see Supplementary material, Fig. S9).
Figure 18 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 18. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), caudal vertebrae. A, 'caudal A' in left lateral view; B, 'caudal A' in posterior view; C, 'caudal B' in right lateral view; D, 'caudal B' in posterior view; E, 'caudal C' in left lateral view; F, 'caudal C' in anterior view; G, 'caudal D' in anterior view; H, 'caudal D' in left lateral view; I, 'caudal D' in posterior view; J, 'caudal D' in dorsal view; K, 'caudal D' in ventral view; L, 'caudal E' in left lateral view; M, 'caudal E' in anterior view; N, 'caudal E' in ventral view; O, 'caudal F' in right lateral view; P, 'caudal F' in posterior view. Abbreviations: ahf, anterior haemapophyseal facet; lr, lateral ridge; ns, neural spine; phf, posterior haemapophyseal facet; plp, pleurapophysis (caudal rib); poz, postzygapophysis; prz, prezygapophysis; sb, small boss. Scale bars ¼ 100 mm.
Figure 22 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 22. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), right femur in A, anterior, B, medial, C, posterior, D, lateral, E, dorsal and F, ventral views. Reconstruction of distal femur shown in Ais based on Mantellisaurus atherfieldensis (Norman 1986). Abbreviations: 4t, fourth trochanter; at, anterior trochanter; dr, diagonal ridge; eig, extensor intercondylar groove; es, eroded surface; fh, femoral head; fig, flexor intercondylar groove; gt, greater trochanter; mc, medial condyle. Scale bar ¼ 100 mm.
Figure 15 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 15. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), dorsal vertebrae. A–E, 'dorsal C' in A, right lateral, B, dorsal (of neural spine), C, anterior, D, ventral and E, posterior views. F, close-up of fracture site on neural spine of 'dorsal E'. G, fragment of pathological dorsal neural spine. H, section of neural spine with bite marks. Abbreviations: afc, anterior surface of centrum; ca, callus; ch, channel; gr, groove; nc, neural canal; ns, neural spine; os, ostosis; ot, ossified tendons; pa, parapophysis; pfc, posterior surface of centrum; poz, postzygapophysis; prz, prezygapophysis; tm, tooth marks; tp, transverse process; vk, ventral keel. Scale bars ¼ 100 mm (A–E) and 50 mm (F–H).
Figure 13 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 13. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), dorsal vertebrae series arranged in probable anterior to posterior order. A–H, left lateral views of dorsals A–H; A0, dorsal A anterior view; B0, dorsal B anterior view; C0 dorsal C anterior view; D0, dorsal Dposterior view; E0, dorsal E anterior, view; F0, dorsal Fanterior view; G0, dorsal Ganterior view; H0, dorsal Hposterior view. Scale bar ¼ 100 mm.
Figure 12 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 12. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), crowns from right dentary (posterior is to the right). A, dentary crown in lingual view; B, close-up of Ashowing denticles; C, dentary crown in lingual view; D, close-up of denticle from A showing mammillae. Abbreviations: ar, accessory ridge; d, marginal denticle; ma, mammilla; pr, primary ridge; sr, secondary ridge. Scale bars ¼ 10 mm (A), 5 mm (B, C) and 1 mm (D).
Figure 14 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 14. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), anterior dorsal vertebrae. A–C, 'dorsal A', probably D1 in A, right lateral, B, anterior and C, posterior views. D–F, 'dorsal B', probably D2 in D, right lateral, E, posterior and F, anterior views. Abbreviations: bf, extraneous bone fragment; nc, neural canal; ns, neural spine; pa, parapophysis; poz, postzygapophysis; prz, prezygapophysis; tp, transverse process. Scale bar ¼ 50 mm.
Figure 16 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 16. Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344), dorsal ribs. A, proximal section of right rib in posterior view; B, specimen 'A' in anterior view (image reversed); C, close-up of Fshowing possible bioerosion; D, posterior series rib head with distal transverse process; E, anterior series, left rib, anterior view and E0, dorsal view; F, middle series (image reversed), left rib, posterior view and F0, dorsal view; G, middle series (image reversed), left rib, posterior view and G0, dorsal view; H, posterior series, right rib, posterior view and H0 dorsal view. Abbreviations: be, bioerosion; cap, capitulum; ef, elliptical foramen; fr, fracture; rr, rounded ridge; rug, rugosity; se, spatulate end; sg, shallow groove; sr, sharp ridge; tp, transverse process; tub, tuberculum. Scale bars ¼ 50 mm (A, B, D, E', F', G', H'), 100 mm (E–H) and 5 mm (C).
Figure 10 in A new hadrosauriform dinosaur from the Wessex Formation, Wealden Group (Early Cretaceous), of the Isle of Wight, southern England
Figure 10. Preliminary reconstructions of the skulls of A, Brighstoneus simmondsi gen. et sp. nov. (MIWG 6344) and B, Mantellisaurus atherfieldensis (NHMUK PV R5764) in lateral view. Shaded areas represent material present in the holotypes. Scale bar ¼ 100 mm.
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Allen Brain Atlas
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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.