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.
4,356
datasets available to search
ShareScore release 0.9.0
Dataset results
4,356 results for “RED”
Fig. 17 in Micropaleontological Study Of The Gura Beliei Red Marls Formation From The Pietroșița Area (Turonian - Maastrichtian). Part Iii Campanian-Maastrichtian Planktonic Foraminifera
Fig. 17: Reproductions of different Globotruncanella taxa from the original papers. 1-6 Globigerina cretacea var. saratogensis Applin 1920 (modified from Applin, 1920); 7-9 Globotruncana havanensis Voorwjik 1937 (modified from Voorwjik, 1937); 10-15 Rugotruncana havanensis (Voorwjik 1937) emend. Brönnimann & Brown 1955, LPB.IV. 12429 (specimens x 90, Neagu Collection); 16-33 Globorotalia pshadae Keller 1946 (modified from Subbotina, 1953).
Fig. 6 in Micropaleontological Study Of The Gura Beliei Red Marls Formation From The Pietroșița Area (Turonian - Maastrichtian). Part Iii Campanian-Maastrichtian Planktonic Foraminifera
Fig. 6: 1-3 Rugoglobigerina ordinaria (Subbotina 1953), Maastrichtian, Țâța Valley, PietroȘița, LPB.IV.12446; 4-6, 13-15 Rugotruncana subpennyi (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12426; 7-9 Rugotruncana subrugosa (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12420; 10-12 Rugoglobigerina beldingi Gandolfi 1955 Maastrichtian, Țâța Valley, PietroȘița, LPB.IV.12419; 16-21 Rugotruncana subloetterli (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, LPB.IV.12423; 22- 24 Rugoglobigerina kelleri (Subbotina 1953), Maastrichtian, Țâța Valley, PietroȘița, LPB.IV.12451 (All specimens x 90).
Fig. 12 in Micropaleontological Study Of The Gura Beliei Red Marls Formation From The Pietroșița Area (Turonian - Maastrichtian). Part Iii Campanian-Maastrichtian Planktonic Foraminifera
Fig. 12: 1-3 Gansserina gansseri (Bolli 1951), Maastrichtian, Țâța Valley, PietroȘița, LPB. IV. 12442; 4-6 Gansserina wiedenmayeri (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, LPB. IV. 12431; 7-9 Rugotruncana subglaessneri (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, LPB. IV. 12421; 10-16 Abatomphalus mayaroensis (Bolli 1951), Maastrichtian, Țâța Valley, PietroȘița, LPB. IV. 12433; 17-19 Globotruncanella havanensis (VOORWJIK 1937) emend. Brönnimann & Brown 1955, Maastrichtian, Țâța Valley, PietroȘița, L.P.B. VI. 12429 (All specimens x 90).
Fig. 9 in Micropaleontological Study Of The Gura Beliei Red Marls Formation From The Pietroșița Area (Turonian - Maastrichtian). Part Iii Campanian-Maastrichtian Planktonic Foraminifera
Fig. 9: 1-6 Globotruncanella havanensis (Voorwjik 1937) emend. Brönnimann & Brown 1955, Maastrichtian, Țâța Valley, PietroȘița, LPB.IV.12429; 7-9 Globotruncanella petaloidea (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12428; 10-12 Globotruncanella pshadae (Keller 1946), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12427; 13-21 Rugotruncana subpenny (Gandolfi, 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12426; 22-24 Rugotruncana subloetterli (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12423; 25-27 Rugotruncana subcircumnodifer (Gandolfi 1955), Maastrichtian, Țâța Valley, PietroȘița, L.P.B.IV.12439 (All specimens x 90).
Fig. 5 in Uppermost Cretaceous Calcareous Nannofossils In Red Pelagic Sediments (Romanian Carpathians)
Fig. 5 The areal occurrence of CORBs belonging to the Gura Beliei Formation, as post-tectonic cover of the Outer Dacides and Moldavides nappes. Geological map modified after Săndulescu et al. (1981) and Săndulescu (1984).
Fig. 2 in Uppermost Cretaceous Calcareous Nannofossils In Red Pelagic Sediments (Romanian Carpathians)
Fig. 2 Lithology and biostratigraphy of the investigated upper Cretaceous sediments in the Pucheni section. Legend: 1 - red marlstones and claystones; 2 - white marlstones and claystones; 3 - grey marlstones and claystones; 4 - sandstones; 5 - FO (first occurrence of a nannofossil); 6 – LO (last occurrence of a nannofossil). CC nannofossil zones of Sissingh (1977), emended by Perch-Nielsen (1985); UC zones of Burnett (1998).
Fig. 7 in Uppermost Cretaceous Calcareous Nannofossils In Red Pelagic Sediments (Romanian Carpathians)
Fig. 7 Litho- and biostratigraphic correlation of the uppermost Cretaceous variegated sediments exposed in the Romanian Carpathians belt. For lithological legend see Fig. 2; the age assignment in the section Izlaz after Cetean et al. (2011), section Pucheni presented in this paper and sections Pietroşița, Talea and Gura Beliei from Melinte & Jipa (2005).
Fig. 6 in Uppermost Cretaceous Calcareous Nannofossils In Red Pelagic Sediments (Romanian Carpathians)
Fig. 6 Upper Cretaceous calcareous nannofossils from the Pucheni section. All microphotographs at LM (light microscope), crossed-nicols; scale bar in microns. a Micula decussata Vekshina, 1959; Santonian, Plaiu Formation; b Micula concava (Stradner in Martini & Stradner, 1960) Verbeek, 1976; Santonian, Plaiu Formation; c Micula murus (Martini, 1961) Bukry, 1973; Maastrichtian, Gura Beliei Formation; d, e Micula prinsii Perch-Nielsen, 1979; upper Maastrichtian, Pucheni Formation; f Lithraphidites quadratus Bramlette & Martini, 1964; upper Maastrichtian, Gura Beliei Formation; g Uniplanarius sissinghi (Perch-Nielsen, 1986) Farhan 1987; upper Campanian, Gura Beliei Formation; h Reinhardtites levis Prins & Sissingh in Sissingh, 1977; lower Maastrichtian, Gura Beliei Formation; i Ceratolithoides aculeus (Stradner, 1961) Prins & Sissingh in Sissingh, 1977; upper Campanian, Plaiu Formation; j Micula swastica Stradner & Steinmetz, 1984; upper Maastrichti- an, Pucheni Formation; k Tranolithus orionatus (Reinhardt, 1966a) Reinhardt, 1966b; lower Maastrichtian, Gura Beliei Formation; l Broinsonia parca parca (Stradner, 1963) Bukry, 1969; lower Campanian, Plaiu Formation; m Arkhangelskiella cymbiformis Vekshina, 1959; lower Campanian, Plaiu Formation; n Gartnerago segmentatum (Stover, 1966) Thierstein, 1974; upper Maastrichtian, Pucheni Formation; o Uniplanarius gothicus (Deflandre, 1959) Hattner & Wise, in Wind & Wise 1983; upper Campanian, Gura Beliei Formation; p Eiffellithus eximius (Stover, 1966) Perch-Nielsen, 1968; upper Campanian, Gura Beliei Formation.
Fig. 6 in Elaphostrongylus and Dictyocaulus infections in Norwegian wild reindeer and red deer populations in relation to summer pasture altitude and climate
Fig. 6. Calculated range and mean (horizontal bar) of temperature for June–August 1959–2018, at the average altitude of the main summer pasture areas for eight wild reindeer and red deer populations sampled for parasitological studies 2012–2014. The results are presented separately for the two 30-year periods 1959–1988 (brown symbols) and 1989–2018 (red symbols). Reindeer populations (No): 14 Nordfjella, 2 Snøhetta, 19 Setesdal Ryfylke, 1 Forollhogna, 6 Rondane, 20 Setesdal Austhei. Red deer populations (No): 24 Ørsta, 25 Kvinnherad. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 7 in Elaphostrongylus and Dictyocaulus infections in Norwegian wild reindeer and red deer populations in relation to summer pasture altitude and climate
Fig. 7. Annual number of summer months (June–August) 1989–2018 with a calculated mean temperature ≥12 ̊C in the main summer grazing area of six wild reindeer populations and two red deer municipalities in South Norway sampled for parasitology 2012–2014. The sampling year of each population is indicated by a red dot. Reindeer populations (No): 14 Nordfjella, 2 Snøhetta, 19 Setesdal Ryfylke, 1 Forollhogna, 6 Rondane, 20 Setesdal Austhei. Red deer populations (No): 24 Ørsta, 25 Kvinnherad. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 3 in Rodent population cycle as a determinant of gastrointestinal nematode abundance in a low-arctic population of the red fox
Fig. 3. Annual prevalence of the two Ascarididae species relative to rodent abundance the autumn preceding winter when the foxes were sampled.
Figure 4 in Effects of genetic relatedness, spatial distance, and context on intraspecific aggression in the red wood ant Formica pratensis (Hymenoptera: Formicidae)
Figure 4. Neighbor-joining tree of genetic distances of the COI gene for F. pratensis sampled from nine colonies. Numbers on the nodes show the bootstrap values (>50%) and the numbers and the abbreviations at the end of the branches denote the localities and the nest IDs, respectively.
Figure 5 in The partitioning of temporal movement patterns of breeding red-crowned crane (Grus japonensis) induced by temperature
Figure 5. Relationships between the principal components (PC1 and PC2) and the moving distance among different breeding subseasons.
Figure 2 in The partitioning of temporal movement patterns of breeding red-crowned crane (Grus japonensis) induced by temperature
Figure 2. Partial correlations between the moving distances and temperature, relative humidity, and precipitation. Asterisk represents the partial residuals; coefficients of the selected model are given in the bottom right corner of this figure.
Figure 5 in Effect of mound size on intranest thermoregulation in the red wood ants Formicarufa and F. polyctena (Hymenoptera, Formicidae)
Figure 5. Diagram of the range of illumination of nests of different shapes for F. rufa and F. polyctena in different types of forests.
Figure 3 in Effect of mound size on intranest thermoregulation in the red wood ants Formicarufa and F. polyctena (Hymenoptera, Formicidae)
Figure 3. Dependence of the radius of the nest of F. rufa and F. polyctena on the illumination of the space under the foliage. Points – primary data; straight lines are regression lines. The linear regression equations are not given, because for all data groups, the coefficient of determination R2<0.01.
Figure 1 in Effect of mound size on intranest thermoregulation in the red wood ants Formicarufa and F. polyctena (Hymenoptera, Formicidae)
Figure 1. The size parameters used in the calculation of the model. D–diameter of mound, H – height of mound, d – diameter of the inner cone, h – height of the inner cone.
Figure 3 in Diurnal time-activity budget and foraging techniques of red-crested pochards (Netta rufina) wintering at the wetlands of West Bengal, India
Figure 3. Month-wise and time-wise proportional time budget of the RCPs. Values are given in percentages of the time spent in the diurnal activities (mean value ± SD; n = 32; 96-h observation).
Figure 2 in Highways for red wood ants (Hymenoptera: Formicidae): a new method to increase the size of anthills
Figure 2. Highways built on the forage trails of RWA. A: Highways constructed from the nest mound. B: Movement of RWA workers along the highways.
FIGURE 4 in The current status of Henckelia peduncularis (Gesneriaceae): Taxonomy, typification, distribution and IUCN Red List assessment
FIGURE 4. Distributional map of Henckelia peduncularis.
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.