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.
44
datasets available to search
ShareScore release 0.9.0
Dataset results
44 results for “early Pliensbachian”
Fig. 11 in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 11. Combined radiolarian and ammonite dating of Lower Jurassic deposits on Mount Rettenstein. The upper age limit of the grey marly limestone is constrained with ammonites, determined in the overlying red nodular limestone, numerical age after Gradstein et al. (2012). Revised radiolarian dating of samples from the Dürrnberg Formation is shown for comparison.
Fig. 6 in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 6. Radiolarians from Mount Rettenstein, Austria, Pliensbachian, Early Jurassic. A. Empirea sp. 1, sample Rö416. B. Acaeniotylopsis ghostensis (Carter in Carter et al., 1988); sample Rö416. C, D. Liassobetraccium bavaricum (Kozur and Mostler, 1990); sample Rö37. E, F. Liassobetraccium verticispinosum (Kozur and Mostler, 1990); sample Rö37. G–J. Tozerium filzmoosense Cifer sp. nov. G. Holotype, sample Rö416: 170717. H. Paratype, sample Rö416: 170503. I. Paratype, sample Rö416: 170739. J. Paratype, sample Rö37: 171105. K–O. Loupanus pliensbachicus Cifer sp. nov. K. Holotype, sample Rö416: 170562. L. Paratype, sample Rö416: 170559. M. Paratype, sample Rö416: 170757. N. Paratype, sample Rö416: 170704. O. Paratype, sample Rö416: 170560. P, Q. Loupanus sp. 1; sample Rö417. R, S. Thurstonia? timberensis Whalen and Carter in Carter et al., 1998; sample Rö416. T. Thurstonia? minutaglobus Whalen and Carter in Carter et al., 1998; sample Rö416. U–W. Thurstonia? robusta Cifer sp. nov. U. Holotype, sample Rö417: Rö417_093.V. Paratype, sample Rö417: Rö417_090. W. Paratype, sample Rö417: Rö417_098.
Fig. 5 in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 5. Microfacies of grey marly limestone with high abundance of radiolarians and sponge spicules in micritic matrix. Bioturbation is indicated by brighter and darker areas. A. Sample Rö416. B. Sample Rö417.
Fig. 3. A in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 3. A. View of the complete Mount Rettenstein complex from the southwest. B. Position of the studied section in the Weitenhaus cirque, the oval indicates the location where the studied samples were collected. C. Schematic sketch of the structural build of Mount Rettenstein with the three main tectonic units (from Auer et al. 2006). Structural Unit I: The primary part of the Tirolic mega-unit which, in contrast to the higher structural units, stayed ( more or less) in place relative to the basis of the Upper Tirolic thrust sheet. In the Mount Rettenstein region, Permian to early Middle Triassic strata make up the succession above the Greywacke Zone basement (Ganss et al. 1954). Structural Unit II: This intermediate, rather thin sheet is mainly made up of a laterally variable mega-slide succession of the Middle Jurassic Hallstatt Mélange. It is thought to have achieved its present position in the hangingwall of a normal fault (Auer et al. 2006). Structural Unit III: The topmost Mount Rettenstein unit corresponds to the Lower to Upper Jurassic Mount Rettenstein succession sensu stricto in the sense of Auer et al. (2009). It is suggested to have been emplaced along a thrust fault (Auer et al. 2006).
Fig. 2 in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 2. Stratigraphic table with lithostratigraphic names and main tectonic events of the Jurassic of the Northern Calcareous Alps with their variations depending on the palaeogeographic position (after Gawlick et al. 2009). The different facies belts and therefore also the formations belong to depositional realms, which roughly correspond to the later formed tectonic units. The outer shelf region can only be reconstructed from blocks in Middle to Upper Jurassic mélanges and is, therefore, not completely understood in all details. The grey limestone succession from Mount Rettenstein shows characteristics of both the Scheibelberg and the Dürrnberg formations (in bold). Estimated palaeogeographic positions of the studied section are indicated. Abbreviations: Cret., Cretaceous; Fm., Formation; Lst., Limestone.
Fig. 1. A in Pliensbachian, Early Jurassic radiolarians from Mount Rettenstein in the Northern Calcareous Alps, Austria
Fig. 1. A. Structural overview maps of the Alpine orogen, showing the situation of the central Northern Calcareous Alps. B. The middle sector of the central Northern Calcareous Alps with locations mentioned in the text indicated (modified from Frisch and Gawlick 2003). Abbreviations: Re, Mount Rettenstein; BD, Bad Dürrnberg; Te, Teltschengraben.
Fig. 11 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 11. Cladogram showing the phylogenetic relationships of Cryonectes neustriacus gen. et sp. nov. Tree length: 133. CI = 0.52, RI = 0.63. For character list and taxa/ character matrix see SOM 1 and SOM 2. Bremer indices are indicated for each node.
Fig. 9 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 9. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. A. Cervical vertebrae 1 to 5 in right lateral view. B. Vertebrae 1 to 5 in anterior view. C. Vertebrae 1 to 5 in ventral view.
Fig. 7 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 7. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE 2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. A. Skull in left lateral view. Posterior part of the right mandibular ramus in lateral (B) and lingual (C) views. Photographs (A1, B1, C1) and explanatory drawings (A2, B2, C2). D. Section of the right mandibular ramus (see Fig. 2 and 4 for actual line of section). E, F. Teeth.
Fig. 10 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 10. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. A. Vertebrae 6 to 10 in right lateral view. B. Vertebrae 6 to 10 in anterior view. C. Vertebrae 6 to 10 in ventral view. D. An isolated neural arch in left lateral view.
Fig. 6 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 6. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE 2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. A. Rostrum in dorsal view. B. Close−up photograph of the parasphenoid and posterior interpterygoid vacuities. Close−up photograph of the anterior interpterygoid vacuity (C) and the posterior part of the palate in oblique anterior view (D). E. Rostrum in ventral view.
Fig. 5 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 5. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE 2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. Skull in ventral view (A) and explanatory drawing (B).
Fig. 3 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 3. Pliosaurid plesiosaur Cryonectes neustriacus gen. et sp. nov., MAE 2007.1.1(J), holotype; Late Pliensbachian, Early Jurassic, Calvados, France. Skull in dorsal view (A) and explanatory drawing (B).
Fig. 2 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 2. Nannofossil assemblages present in the matrix of the specimen Cryonectes neustriacus sp. nov., MAE 2007.1.1(J) from Upper Pliensbachian, Calvados, France. A, B. Thick specimens of Crepidolithus impontus. C. Thin specimen of Crepidolithus impontus. D. Parhabdolithus liasicus. E. Mitrolithus elegans. F. Crepidolithus crassus. G. Similiscutum cruciulus. H. Lotharingius frodoi. I. Calyculus sp. ind. Scale bars 5 µm.
Fig. 1 in A new pliosaurid from the Pliensbachian, Early Jurassic of Normandy, Northern France
Fig. 1. Simplified stratigraphic section of the Lower Jurassic succession in the Roche−Blain quarry (modified from Dugué et al. 1998), with the possible stratigraphic position of the specimen Cryonectes neustriacus MAE 2007. 1.1(J), holotype, as indicated by arrows. Abbreviations: P. spi., Pleuroceras spinatum Ammonite Zone; D. ten., Dactylioceras tenuicostatum Ammonite Zone; H. serp., Harpoceras serpentinus Ammonite Zone; H. v., Haugia variabilis Ammonite Zone; A.P., "Argile à poissons" formation; M., mudstone; W., wackestone; P., packstone; G, grainstone.
FIG. 6 in Late Pliensbachian (Early Jurassic) ammonites from Lac de Charmes (Haute-Marne, France): Systematic, biostratigraphy and palaeobiogeography
FIG. 6. — Pleuroceras transiens (Frentzen, 1937): A, B, specimen UPMC-175, Outcrop 1, bed 8, 9; C, D, E, specimen UPMC-176, Outcrop 1, bed 8, 9. Amaltheus margaritatus Montfort, 1808; F, G, specimen UPMC-187, Outcrop 1, bed 13. Amaltheus salebrosum Hyatt, 1867; H, I, specimen UPMC-188, Outcrop 1, bed 13. Scale bar: 1 cm. The arrows indicate the beginning of the body chamber.
FIG. 8 in Late Pliensbachian (Early Jurassic) ammonites from Lac de Charmes (Haute-Marne, France): Systematic, biostratigraphy and palaeobiogeography
FIG. 8. – Pleuroceras spinatum (Bruguière, 1789): A, B, specimen UPMC-209, Outcrop 1, bed 20; C, specimen UPMC-208; D, E, speci- men UPMC-220, Outcrop 1, bed 20. Scale bar: 1 cm.
FIG. 3 in Late Pliensbachian (Early Jurassic) ammonites from Lac de Charmes (Haute-Marne, France): Systematic, biostratigraphy and palaeobiogeography
FIG. 3. — Abbreviations of the dimensional parameters used in the systematic descriptions: D, shell diameter; h, whorl height starting from the umbilical seam to the beginning of the forward projection of the rib; Ph, phragmocone diameter; U, umbilicus diameter; Wh, whorl height; Wb, whorl breadth.
FIG. 4 in Late Pliensbachian (Early Jurassic) ammonites from Lac de Charmes (Haute-Marne, France): Systematic, biostratigraphy and palaeobiogeography
FIG. 4. — Amaltheus margaritatus Montfort, 1808: A, B, specimen UPMC-137, Outcrop 1, bed 3, Amaltheus gibbosus (Schlotheim, 1820); C, D, specimen UPMC-100, Outcrop 1, bed 3; E, F, specimen UPMC-138, Outcrop 1, bed 3. Scale bar: 1 cm. The arrows indicate the beginning of the body chamber.
FIG. 7 in Late Pliensbachian (Early Jurassic) ammonites from Lac de Charmes (Haute-Marne, France): Systematic, biostratigraphy and palaeobiogeography
FIG. 7. — Pleuroceras spinatum (Bruguière, 1789): A, specimen UPMC-189, Outcrop 1, bed 13. Pleuroceras solare (Phillips, 1829); B, C, specimen UPMC-190, Outcrop 1, bed 13; D, E, specimen UPMC-200, Outcrop 1, bed 16. Pleuroceras solare trapezoidiforme (Maubeuge, 1951); F, G, specimen UPMC-202, Outcrop 1, bed 16. Pleuroceras cf. spinatum (Bruguière, 1789); H, I, specimen UPMC- 201, Outcrop 1, bed 16. Scale bar: 1 cm. The arrows indicate the beginning of the body chamber.
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.