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.
7,920
datasets available to search
ShareScore release 0.9.0
Dataset results
7,920 results for “implications”
FIGURE 1 in Tooth enamel microstructure in North American Phytosauria (Diapsida:Archosauriformes): Implications for biogeography and ecology of a Late Triassic clade of crocodylian-like predators
FIGURE 1. Geographic distribution and phylogenetic position of phytosaurs. 1A—Global distribution of phytosaur specimens from Middle and Late Triassic modified from Stocker and Butler (2013). Palaeomap from C. Scotese built into the Paleobiology Database for the Late Triassic (220 Ma) 1B—General cladogram of archosauromorphs that have been sampled for EM with the two possible positions of Phytosauria marked in red. Based on Heckert and Miller-Camp (2012) 1C—Locality map of specimens used in this study. North Carolina not to the same scale as western states. Locality numbers from NMMNH (western states) or NCSM (North Carolina).
FIGURE 2 in Tooth enamel microstructure in North American Phytosauria (Diapsida:Archosauriformes): Implications for biogeography and ecology of a Late Triassic clade of crocodylian-like predators
FIGURE 2. Classification and measurement of the teeth sampled here. 2A—Idealized drawings of heterodont phytosaur teeth following Hunt (1989; type C, U, I, B), Hungerbühler (2001; tip-of-snout, premaxillary, maxillary), and Datta et al. (2021; morphotypes IA, IB, IC, ID). 2B—Schematic of macro-morphological measurements taken on phytosaur teeth as preservation allowed. Measurements following the protocols of Smith (2005) with purple labels: CH—crown height, CBL—crown base length, AL—apical length, CA—crown angle (angle GAB), MA—mesial apical, MC—mesial mid-crown, and MB—mesial basal denticle densities, DA—distal apical, DC—distal mid-crown, and DB—distal basal denticle densities, with measurements new to this study in green: LAH—labial height, LIH—lingual height, and LLA— labio-lingual angle.
FIGURE 9 in Tooth enamel microstructure in North American Phytosauria (Diapsida:Archosauriformes): Implications for biogeography and ecology of a Late Triassic clade of crocodylian-like predators
FIGURE 9. Boxplots of overall enamel thickness and enamel thickness to crown height ratio. Circles around boxplots represent outliers. 9A—Enamel thickness (μm) by tooth type. Type B teeth have the thickest enamel on average; 9B— Enamel thickness (μm) over crown height (mm) by tooth type. We included this ratio as a way to account for the overall size of teeth. Type B teeth have the thickest enamel on average, followed by type U; 9C—Enamel thickness (μm) of transverse sections by taxonomic assignment with stratigraphically oldest on the left of the plot,showing variation in enamel thickness but no chronological trend; 9D—Enamel thickness (μm) of transverse sections of type I teeth. When only considering type I teeth enamel thickness thins through time; 9E—Enamel thickness (μm) over crown height (mm) of transverse sections of type I teeth. When overall tooth size is accounted for, the opposite of Figure 9E is seen with typical enamel per mm height increasing through time.
FIGURE 3 in Tooth enamel microstructure in North American Phytosauria (Diapsida:Archosauriformes): Implications for biogeography and ecology of a Late Triassic clade of crocodylian-like predators
FIGURE 3. Generalized stratigraphic distribution of the phytosaur teeth sampled here (L-3380, L-3845, L-4211, L- 6818, NCPALEO1902) and by Sander (1999; IPB E-2011, 2007I-III) compared to stratigraphic distribution of heterodont phytosaurs, North American biostratigraphy, and the standard global chronostratigraphic scale (SGCS). See text for details of the stratigraphy of each locality. Numerical age estimates draw on a variety of sources, including Heckert et al., 2009; Irmis et al., 2011; Ramezani et al., 2011; Whiteside et al., 2011. FAD = First appearance datum; L- = locality numbers for New Mexico Museum of Natural History and Science; LVF = Land-vertebrate faunachron (= "holochron"); NCPaleo = Locality for North Carolina Museum of Natural Sciences.
FIGURE 8 in Tooth enamel microstructure in North American Phytosauria (Diapsida:Archosauriformes): Implications for biogeography and ecology of a Late Triassic clade of crocodylian-like predators
FIGURE 8. SEM captures of Redondasaurus teeth from the Redonda Formation of New Mexico. 8A—NMMNH P- 36184 type I tooth in transverse section with poorly-developed LIGs near OES as well as a few more near the center; 8B—NMMNH P-36185 type I tooth in transverse section with well-developed columns along lingual margin; 8C— NMMNH P-36186 type B tooth in transverse section along labial margin; 8D—NMMNH P-36186 type B tooth in transverse section along lingual margin; 8E—NMMNH P-36186 type B tooth in transverse section with well-developed columns; 8F—NMMNH P-36186 type B tooth in tangential section with ~50 µm at bottom of enamel, just above enameldentine junction (EDJ) showing polygonal columnar packages. All scale bars equal 50 µm.
FIGURE 6 in Histology of spinosaurid dinosaur teeth from the Albian-Cenomanian of Morocco: Implications for tooth replacement and ecology
FIGURE 6. (A) Natural logarithm of tooth formation rate plotted against the natural logarithm of the body mass. Dark blue = sauropodomorpha, light blue = sauropods, purple = ornithischians, green = theropods. (B) Natural logarithm of known tooth replacement rates plotted against natural logarithm of tooth formation rates including all available archosaurs, with a regression line and the regression equation. Colour code as above; yellow = spinosaur with the standard deviation as error bars. (C) Natural logarithm of known tooth replacement rates plotted against natural logarithm of tooth formation rates including theropods only, with a regression line and the regression equation. Colour code as above. Silhouette of Triceratops by R. Amos, all other silhouettes by S. Hartman from www.phylopic.org; licence https:/ /creativecommons.org/licenses/by-nc-sa/3.0/.
FIGURE 5 in Histology of spinosaurid dinosaur teeth from the Albian-Cenomanian of Morocco: Implications for tooth replacement and ecology
FIGURE 5. (A) Section SNSB-BSPG 2008 XXXVII 4b; scale bar equals 1 mm. (B) Section SNSB-BSPG 2008 XXXVII 4b with clearly visible growth lines; scale bar equals 1 mm. (C) Section SNSB-BSPG 2008 XXXVII 4c; scale bar equals 1 mm. (D) Section SNSB-BSPG 2008 XXXVII 5b shows the dentine tubuli curving towards the apex; scale bar equals 1 mm. (E) Section SNSB-BSPG 2008 XXXVII 5b shows the red mineralisation and the growth lines; scale bar equals 1 mm. (F) Section SNSB-BSPG 2008 XXXVII 5b. The arrow indicates the foreign particle with bent growth lines to its left and right; scale bar equals 1 mm.
FIGURE 2 in Histology of spinosaurid dinosaur teeth from the Albian-Cenomanian of Morocco: Implications for tooth replacement and ecology
FIGURE 2. (A) Positions of the measurements in labial (left) and distal (right) view. L = length from the crown (apex) to the basal end; WAPa = width measured anterio-posteriorly at the apex; WAPb = width measured anterior-posteriorly at the base; WLLa = width measured labio-lingually at the apex; WLLb = width measured labio-lingually at the base. PCap = width of the pulp cavity measured anterio-posteriorly; PCll = width of the pulp cavity measured labio-lingually. (B-F) Positions and collection IDs of the thin sections (SNSB-BSPG 2008 XXXVII followed by the number and letter given in the pictures). All scale bars equal 1 cm.
FIGURE 4 in Histology of spinosaurid dinosaur teeth from the Albian-Cenomanian of Morocco: Implications for tooth replacement and ecology
FIGURE 4. (A) Section SNSB-BSPG 2008 XXXVII 1b. The growth lines are visible in the upper half of the section; scale bar equals 1 mm. (B) Section SNSB-BSPG 2008 XXXVII 1e shows the curving of the dentine near the enamel; scale bar equals 1 mm. (C) Section SNSB-BSPG 2008 XXXVII 3b shows a higher density of growth lines around the pulp cavity. The arrow indicates the mineralised gap in the internal wall of the tooth; scale bar equals 1 mm. (D) Section SNSB-BSPG 2008 XXXVII 2b shows the red mineralisation and fissures; scale bar equals 5 mm. (E) Section SNSB-BSPG 2008 XXXVII 2c. The arrow indicates the area of a series of start of alternating incremental lines; scale bar equals 1 mm. (F) Section SNSB-BSPG 2008 XXXVII 2c. The arrow indicates curving incremental lines; scale bar equals 1 mm.
FIGURE 1 in Histology of spinosaurid dinosaur teeth from the Albian-Cenomanian of Morocco: Implications for tooth replacement and ecology
FIGURE 1. (A) Schematic drawing of a tooth cross section showing the concentric incremental lines of von Ebner and the radial tubuli. (B) Schematic drawing of a tooth longitudinal section; it demonstrates why cross sections do not always show all growth lines.
FIGURE 3 in A Century after! Rediscovery of the ancient catfish Diplomystes Bleeker 1858 (Siluriformes: Diplomystidae) in coastal river basins of Chile and its implications for conservation
FIGURE 3 | Phylogenetic position of the Coastal populations of Diplomystes recorded in this study in relation to the diversity of the family presented in Muñoz-Ramírez et al. (2014), inferred from the analyzes of two mitochondrial DNA regions (Cytochrome b and Control Region). A. Unrooted Bayesian phylogenetic tree. B. Haplotype network for Diplomystes including samples from the Biobío Basin (from Muñoz-Ramírez et al., 2014) and the individuals sampled in this study. The size of the haplotype represents its frequency, whereas the color represents its geographic distribution. Dashes on lines connecting two haplotypes represent either mutational steps or uncollected haplotypes.
FIGURE 1 in A Century after! Rediscovery of the ancient catfish Diplomystes Bleeker 1858 (Siluriformes: Diplomystidae) in coastal river basins of Chile and its implications for conservation
FIGURE 1 | General area and coastal basins where the new specimens of Diplomystes were recorded. Coastal basin names are shown with a smaller font size in the map on the right. The Carampangue and Laraquete basins, from where the samples were collected, are indicated with their names in bold.
Exploring Ethical Implications: Unraveling Factors Influencing Data Governance Awareness Behavior in Generative AI Chatbot
<p>Data set</p>
Figure 15 in Albian to Turonian agglutinated foraminiferal assemblages of the Lower Saxony Cretaceous sub-basins - implications for sequence stratigraphy and paleoenvironmental interpretation
Figure 15. Albian, Cenomanian, and Turonian micro-bioevents, their subtypes defined by agglutinated foraminifers, and interpreted bottomwater nutrient regimes in the Lower Saxony Cretaceous as well as in the Subhercynian subbasins. Micro-bioevent subtypes correlate with one or more acmes of specific agglutinated foraminiferal species. Depositional sequences and their stratigraphical relations are from Janetschke et al. (2015: Fig. 6).
Figure 2 in Selenogonus narinoensis Stirton, 1947 (Tayassuidae, Cetartiodactyla, Mammalia): taxonomic status and paleobiogeographic implications
Figure 2. Geographical location of the MGN 931 (IGM p002118) and fossil records of Platygonus marplatensis in South America.
Figure 5. A in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 5. A young humpback calf is lifted out of the water on its mother's back while an escort (above) moves in to assist in driving off a group of attacking killer whales adjacent to Ningaloo Reef in July 2013 (#20); the attack was unsuccessful and the calf was not harmed. Photo: L. Ballance.
Figure 6 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia
Figure 6. Killer whales feeding on the tongue and throat pleats of a humpback calf that they just killed off Ningaloo (#30). Video: J. Totterdell.
Fig. 3. Gompertz 3 in Seasonal phenology of Sirex nigricornis (Hymenoptera: Siricidae) in Arkansas with implications for management of Sirex noctilio
Fig. 3. Gompertz 3-parameter model fit to cumulative proportion of wood wasps captured in Arkansas, USA, from 24 Sep to 6 Dec 2010.
Fig. 7. Gompertz 3 in Seasonal phenology of Sirex nigricornis (Hymenoptera: Siricidae) in Arkansas with implications for management of Sirex noctilio
Fig. 7. Gompertz 3-parameter model fit to all 5 Sirex nigricornis trapping seasons; a = 1.0628, b = 0.0575, c = 309.5517; R2 = 0.8582. The inflection point for the overall model, encompassing 5 trapping seasons, was 310 d, or 6 Nov. Legend indicates which data points correspond to which year.
Fig. 2 in Large theropod dinosaur footprint associations in western Gondwana: Behavioural and palaeogeographic implications
Fig. 2. Schematic Mesozoic chronostratigraphy for the Hualhuani and Chacarilla formations, with the expected relative positions of the track−bearing strata.
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.