Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
14,227
datasets available to search
ShareScore release 0.9.0
Dataset results
14,227 results for “15”
Figs 15-22 in A new species of rake-legged mite Neocaeculus (Acari, Caeculidae) from Brazilian semiarid and new data on distribution of Andocaeculus caioi
Figs 15-22. Neocaeculus setecidades sp. nov.: 15, 17, 19, 21, trochanter, basifemur, femur and genu, respectively Legs I, II, III, IV, dorso-prolateral view; 16, 18, 20, 22, tibia and tarsus, respectively Legs I, II, III, IV, prolateral view (bt, tarsal bothridium; sol, solenidion; ts, tarsal solenidion). Scale bar: 250 μm. Dotted circles indicate solenidia and eupathidia at retrolateral positions.
Figs 9‒15 in First illustrated description of the male of Diphya macrophthalma, the type species of the genus (Araneae, Tetragnathidae)
Figs 9‒15. Male palp of Diphya macrophthalma Nicolet, 1849: 9, whole palp, retrolateral; 10, 11, terminal part of palp, retro-ventral and antero-ventral; 12, same, prolateral; 13, 14 same, anterior and dorsal; 15, terminal part of the bulb, retrolateral (Am, accompanying membrane; Co, conductor; Da, dorso-retrolateral apophysis; Em, embolus; Ev, embolus ventrally; Pd, spine like dorsal part; Tg, tegulum). Scale = 0.2 mm.
Figs 15-20 in New species and new records of terrestrial isopods (Crustacea, Isopoda, Oniscidea) from Brazil
Figs 15-20. Androdeloscia lejeunei (Lemos de Castro & Souza, 1986), ♂: 15, left mandible; 16, right mandible; 17, maxillula; 18, maxilla; 19, maxilliped; 20, uropod.
Fig. 15. Conodont P1 in Geometric morphometric analysis and taxonomic revision of the Gzhelian (Late Pennsylvanian) conodont Idiognathodus simulator from North America
Fig. 15. Conodont P1 elements of Idiognathodus lateralis sp. nov. (A–M) and Idiognathodus praenuntius (Chernykh, 2005) (N–T) from the Heebner Shale, Gzhelian (Late Pennsylvanian). A. SUI 141062 (TT0228); Sedan 11. B. SUI 141063 (TT0233); Sedan 11. C. SUI 141064 (TT0050); Clinton 20. D., SUI 141065 (TT0019); Clinton 22. E. SUI 141066 (TT0168); Sedan 23. F. SUI 141067 (TT0261); Sedan 11. G. SUI 141068 (TT0260); Sedan 11. →
Fig. 15 in Ordovician rafinesquinine brachiopods from peri-Gondwana
Fig. 15. Ventral valves of rafinesquinine brachiopod Rafinesquina (Mesogeina) pomoides Havlíček, 1971; middle Katian (Ka2), Upper Ordovician; Lower Ktaoua Formation (A) and Upper Tiouririne Formation (B), Morocco; Huerva Member of Fombuena Formation, Iberian Chains, Spain (C); Porto de Santa Anna Formation, Portuguese Central Iberian Zone, Portugal (D–F). A. MPZ_2003_832, ventral internal mould of a complete valve in upper (A1) and lateroblique (A2) views. B. MPZ 2015/1390, latex cast of ventral exterior of a ventral valve. C. DPZ-318 (ex-holotype of Rafinesquina lignani Villas, 1985), ventral internal mould (C1), latex cast of ventral interior (C2), detail of dental plates (C3), and lateral view (C4). D. IGM-2545A, ventral internal mould. E. IGM-2545B, latex cast of exterior. F. IGM-2945, internal mould. Scale bars 2 mm.
Fig. 15 in New specimens of the multituberculate mammal Sphenopsalis from China: Implications for phylogeny and biology of taeniolabidoids
Fig. 15. Teeth of multituberculate mammal from the lower Paleocene Puercan in the San Juan Basin, New Mexico. A. Taeniolabis sp., AMNH 117415, cast, occlusal view of right p4–m2. B, C. Taeniolabis taoensis Cope, 1882. B. AMNH 16310, occlusal view of the left p4–m2. C. AMNH 16321, occlusal view of the right P4–M2.
Fig. 15 in Thyasirid bivalves from Cretaceous and Paleogene cold seeps
Fig. 15. Thyasirid bivalve Thyasira tanabei Kiel, Amano, and Jenkins, 2008, from Santonian seep carbonates from the Himenoura Group, Maeshima, Goshoura Island, Kumamoto Prefecture, southern Kyushu, Japan. A. ZPAL L.16/14, a partial internal mold in oblique right lateral view (A1); detail with indicated radial striae and anterior adductor muscle scar (A2, A3). B. ZPAL L.16/15, a partial internal mold in oblique right lateral view (B1); probably anterior pedal retractor muscle scar (B2). C. ZPAL L.16/16, a specimen in oblique dorsal view (C1); a very weak posterior sulcus and posterior fold, with minute auricle visible (C2). D. ZPAL L.16/17, a specimen in oblique posterodorsal view (D1); posterodorsal shell margin with posterior sulcus, posterior fold, submarginal sulcus and auricles indicated (D2).
Fig. 15 in The West African enigma: Systematics, evolution, and palaeobiogeography of cardiid bivalve Procardium
Fig. 15. Cardiid bivalve Procardium magnei sp. nov. from early Burdigalian (Miocene) of Saucats, "La Coquillière", France. A. Holotype, PH 11708, external (A1), internal (A2), and umbonal (A3) views, details of sculpture (A4) and right hinge (A5). B. Paratype, PH 63240, external (B1), internal (B2), and posterior (B3) views. C. Paratype, RGM.794098, external view (C1), detail of sculpture (C2) and microsculpture (C3). Scale bars: A1–A3, B, C1, 50 mm; A5, C2, 20 mm; A4, 10 mm; C3, 5 mm.
Fig. 15. Ephydatia kaiseri Rauff, 1926 in Fossil freshwater sponges: Taxonomy, geographic distribution, and critical review
Fig. 15. Ephydatia kaiseri Rauff, 1926, Spongillida: Spongillidae; (pre) middle Eocene freshwater chert, Pomona diamond field, Namib Desert, Namibia. A. Grouped gemmuloscleres; originally enlarged 660×, the text states that particular birotules are 44–65 μm long. B. Megascleres; originally enlarged 175, the text states that spicules are 350 μm long. C. Birotule (gemmulosclere), originally enlarged 660×, the text states that spicule can be 44–65 μm long. D. Gemmule of a Recent species of Ephydatia (cross section). A, B, photographs; C, D, schematic drawings. Modified from Rauff (1926).
Fig. 15 in Evolution of postcranial skeleton in worm lizards inferred from its status in the Cretaceous stem-amphisbaenian Slavoia darevskii
Fig. 15. Sequence of evolutionary changes in the amphisbaenian body plan proposed in this work. The phylogenetic relationships are taken from Kearney and Stuart (2004) and Tałanda (2016).
Fig. 15 in A middle Eocene seep deposit with silicified fauna from the Humptulips Formation in western Washington State, USA
Fig. 15. The orbitestellid gastropod Orbitestella dioi sp. nov. from the middle Eocene Satsop Weatherwax seep deposit, Washington State, USA. A. NRM Mo 185033; specimen with 2.25 whorls in apical view (A1); apertural view showing a rounded aperture (A2); close-up on protoconch, arrow indicates protoconch-teleoconch transition (A3). B. NRM Mo 185034 (holotype) with roughly 2 whorls in apical (B1) and oblique (B2) views; close-up on protoconch (B3).
Fig. 15. A in Pterosauria of the Great Oolite Group (Bathonian, Middle Jurassic) of Oxfordshire and Gloucestershire, England
Fig. 15. A mandible (split transversely) of?Rhamphorhynchidae indet. (NHMUK PV R 1824) from Taynton Limestone Formation (Bathonian, Middle Jurassic), Stonesfield, Oxfordshire, UK. A. Two halves of the specimen together, in dorsal view. B. The dorsal slab seen in ventral view. C. Composite image in left lateral view.
Fig. 15. The A1 in Shelly fossils from the lower Cambrian White Point Conglomerate, Kangaroo Island, South Australia
Fig. 15. The A1 sclerites of the camenellan tommotiid Dailyatia decobruta Betts sp. nov. from the lower Cambrian White Point Conglomerate, Kangaroo Island, South Australia. A. SAM P57329 in apical view. B. SAM P57330 in apical view (B1); B2 shows the broad, convex deltoid. C. SAM P57331 in anterior view. D. SAM P57332 in apical view. E. SAM P57333 in apical view. F. SAM P57334 in apical view. G. SAM P57335 in apical view (G1); G2 shows the concentric, wrinkled ornament on the anterior field. H. SAM P57336 in apical view. I. SAM P57337 in apical view. J. SAM P57338 in oblique lateral view. K. SAM P57339 in oblique lateral view.
Fig. 15 in Two new stegosaur specimens from the Upper Jurassic Morrison Formation of Montana, USA
Fig. 15. Left humerus of stegosaur GPDM 178, near Giffen, Cascade County, Montana; in anterior (A1), posterior (A2), lateral (A3), medial (A4), dorsal (A5), and ventral (A6) views.
Fig. 15. The pseudosuchian archosaur Prestosuchus chiniquensis Huene, 1938 in The skull anatomy and cranial endocast of the pseudosuchid archosaur Prestosuchus chiniquensis from the Triassic of Brazil
Fig. 15. The pseudosuchian archosaur Prestosuchus chiniquensis Huene, 1938 (UFRGS-PV-0629-T) from the Dinodontosaurus Assemblage Zone, Ladinian, Middle Triassic, Dona Francisca municipality, Rio Grande do Sul State, Brazil. A. Photograph of the left palatine in dorsal view. B. Explanatory drawing of the left ectopterygoid articulated with the jugal in ventral view.
Fig. 15 in Two new basal coelurosaurian theropod dinosaurs from the Lower Cretaceous Sao Khua Formation of Thailand
Fig. 15. Coelurosaurian theropod Vayuraptor nongbualamphuensis gen. et sp. nov. from the Early Cretaceous Sao Khua Formation of Phu Wat, Nong Bua Lamphu Province, Thailand. PRC-NB A1-11, right coracoid in lateral (A1) and medial (A2) views. Dashed lines are the reconstruction of the posteroventral process of the coracoid.
Fig. 15. A in Diversity in rhynchocephalian Clevosaurus skulls based on CT reconstruction of two Late Triassic species from Great Britain
Fig. 15. A size scale comparison of the skulls of lepidosaur rynchocephalians. A. Sphenodon punctatus (from Maisano 2001). B. Clevosaurus cambrica Keeble, Whiteside, and Benton, 2018. C. Clevosaurus hudsoni Swinton, 1939; C3, based on NHMUK PV R36832 (adapted from illustrations by Lavinia Gandolfi). In lateral (A1–C1, C4) and dorsal (A2–C2) views.
Fig. 15 in Faunal dynamics across the Silurian-Devonian positive isotope excursions (δ C, δ O) in Podolia, Ukraine: Comparative analysis of the Ireviken and Klonk events
Fig. 15. Conodont and graptolite distribution in the Kytayhorod section. Numbers near the ovals are numbers of specimens in the sample. Shades of gray denote three slices of the ESCIE.
Fig. 15 in The brachiopod succession through the Silurian-Devonian boundary beds at Dnistrove, Podolia, Ukraine
Fig. 15. Atrypide brachiopods from the Silurian–Devonian boundary beds at Dnistrove (Podolia, Ukraine). A, B. Sepatrypa (Septatrypa) secreta Kozłowski, 1929. Two shells ZPAL Bp. 56/74 (A) and ZPAL Bp. 56/75 (B) in dorsal (A1, B1), ventral (A2, B2), lateral (A3, B3), posterior (A4, B4), and anterior (A5, B5) views. C. Lissatrypa leprosa Kozłowski, 1929; shell ZPAL Bp. 56/100a in dorsal (C1), ventral (C2), lateral (C3), posterior (C4), and anterior (C5) views. Beds 47–48 (A, B) and loose block between the trench and well (C). Scale bars 1 mm.
Fig. 15 in A new albanerpetontid amphibian from the Barremian (Early Cretaceous) Wessex Formation of the Isle of Wight, southern England
Fig. 15. Simplified versions of strict consensus and topological variants seen in the 24 shortest trees generated in our second analysis, showing alternative hypotheses of relationships among Albanerpeton, Wesserpeton, and the Uña albanerpetontid. A. Strict consensus: unresolved trichotomy among Albanerpeton, Wesserpeton, and Uña albanerpetontid. B. Topological variant 1: Uña albanerpetontid is sister of Wesserpeton + Albanerpeton. C. Topological variant 2: Wesserpeton is sister of Uña albanerpetontid + Albanerpeton. D. Topological variant 3: Albanerpeton is sister of Wesserpeton + Uña albanerpetontid. Each topological variant was found in one−third of the shortest trees. Tree statistics (uninformative characters excluded) are as follows: tree length = 50 steps; CI = 0.683, HI = 0.317, and RI = 0.806.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
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.