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.
3,583
datasets available to search
ShareScore release 0.9.0
Dataset results
3,583 results for “elevations”
FIG. 3 in Response of American Toads and Their Invertebrate Prey to Experimentally Elevated Soil pH
FIG. 3. Non-metric multidimensional scaling (NMDS) ordination of invertebrate community composition on day 0 (A) and day 91 (B). Soil pH treatment group scores and standard errors are represented by symbol type and line type (sites with elevated soil pH—solid shapes, solid line; sites with acidified soils—open shapes, dashed line). Forests are represented by symbol shape (CWRU Farm—circle; Schoop Forest— triangle; Pierson Creek Forest—square).
FIG. 2 in Response of American Toads and Their Invertebrate Prey to Experimentally Elevated Soil pH
FIG. 2. American Toad survival (proportion of initial toads located, n ¼ 4 toads per enclosure initially) and body mass over 90 days within enclosures located in forest plots with elevated soil pH (circles and solid line) and forest plots with acidified soils (triangles and dashed line). (A) Proportion of American Toads located in each enclosure within each soil pH treatment after 25, 60, and 90 days. Data are mean per soil pH treatment at each census period 6 1 s.e. (B) American Toad mass in each enclosure within each soil pH treatment at the start of the study and after 25, 60, and 90 days. Mean toad mass was calculated per enclosure at each census period. Data are mean per soil pH treatment at each census period 6 1 s.e.
Fig. 2 in Necrophagous Beetles (Coleoptera: Scarabaeoidea and Silphidae) along an Elevational Gradient from Cerro de García, Jalisco, México
Fig. 2. Species interpolation/extrapolation rarefaction curves based on number of individuals and true diversity 1D.
Fig. 1 in Necrophagous Beetles (Coleoptera: Scarabaeoidea and Silphidae) along an Elevational Gradient from Cerro de García, Jalisco, México
Fig. 1. Geographic location of Cerro de GarcÍa. Black dots indicate the elevational sites where traps were set.
Figs. 4–27 in Necrophagous Beetles (Coleoptera: Scarabaeoidea and Silphidae) along an Elevational Gradient from Cerro de García, Jalisco, México
Figs. 4–27. Representative sepecies of necrophagous beetles from Cerro de GarcÍa, Jalisco: 4) Nicrophorus mexicanus; 5) Nicrophorus olidus; 6) Oxelytrum discicolle; 7) Thanatophilus truncatus; 8) Omorgus rodriguezae; 9) Omorgus rubricans; 10) Omorgus suberosus; 11) Canthon humectus humectus; 12) Canthon humectus assimilis; 13) Deltochilum scabriusculum; 14) Deltochilum carrilloi; 15) Phanaeus furiosus; 16) Phanaeus palliatus; 17) Phanaeus florhi; 18) Coprophanaeus pluto; 19) Dichotomius amplicollis; 20) Trox plicatus; 21) Trox spinulosus dentibius; 22) Canthon corporali; 23) Onthophagus nitidior; 24) Onthophagus jaliscensis; 25) Onthophagus durangoensis; 26) Geotrupes fisheri.
Fig. 3 in Necrophagous Beetles (Coleoptera: Scarabaeoidea and Silphidae) along an Elevational Gradient from Cerro de García, Jalisco, México
Fig. 3. Elevational distribution pattern of necrophagous beetles along elevational sites at Cerro de GarcÍa, Jalisco. a) Proportion of abundance by family, b) Richness values (0D) of necrophagous beetles, c) True diversity 1D values, d) True diversity 2D values. The bars around the points indicate the standard error of the diversity value. The lines in figures b, c, and d are the trend lines provided by linear regression analysis.
Preserving Precise Choreography of Bonds in Z-Stereoretentive Olefin Metathesis Even at Elevated Temperature by Using Quinoxaline-2,3-dithiolate Ligand
<p>Data confirming the structure of the new compounds obtained within the project, published in Nature Communications. The research was performed within OPUS project and was funded by National Science Centre, Poland, grant number UMO-2019/33/B/ST4/00874.</p>
FIGURE 3 in Cryptantha nevadensis var. rigida elevated to species with a new name, C. juniperensis
FIGURE 3. Distribution map of Cryptantha nevadensis var. rigida [=C. juniperensis] (solid red dots), and of C. nevadensis var. nevadensis (black bordered dots). Data from georeferenced records at Baja Flora (2016), Consortium of California Herbaria (2016), and SEINet (2016). Map data from ©Google 2016, INEGI Data.
FIGURE 2 in Cryptantha nevadensis var. rigida elevated to species with a new name, C. juniperensis
FIGURE 2. Comparison of features of Cryptantha nevadensis var. rigida [=C. juniperensis] with C. nevadensis var. nevadensis. A. Fruiting calyces of Cryptantha nevadensis var. rigida. B. Fruiting calyces of Cryptantha nevadensis var. nevadensis, which are longer and more reflexed apically (shown to same scale as "A"). C. Nutlets of Cryptantha nevadensis var. rigida, in dorsal (left), ventral (middle), and lateral (right) views. D. Nutlets of Cryptantha nevadensis var. nevadensis (shown to same scale as "C"), which are longer, relatively narrower, and more coarsely elongate-tuberculate to muricate, tubercles near the apex often upturned. Specimens illustrated: A, C: RSA 580318; B, D: SDSU 13032.
FIGURE 1 in Cryptantha nevadensis var. rigida elevated to species with a new name, C. juniperensis
FIGURE 1. Holotype specimen of Cryptantha nevadensis var. rigida [=C. juniperensis], C. G. Pringle s.n., 16 May 1882 (GH 00096065). Note paired cymules.
FIGURE 16. Polystichum superum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 16. Polystichum superum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habit of plants.—B. Portion of abaxial lamina.
FIGURE 14. Polystichum rectum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 14. Polystichum rectum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habit.—B. Portion of abaxial lamina.—C. Portion of adaxial lamina.
FIGURE 12. Polystichum pingbianense Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 12. Polystichum pingbianense Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habit of plants.—B. Portion of abaxial lamina.—C. Apex of lamina.
FIGURE 11. Polystichum pingbianense Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 11. Polystichum pingbianense Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habitat and plant.—B. Adaxial view of leaves.—C, F. Abaxial views of laminae.—E. Lower portion of leaf.—G. Portion of abaxial lamina.—H. Sporangium before dehiscence.—K. Equatorial views of spores with and partially without perispores under SEM.—J. Portion of the village where the new species was discovered.
FIGURE 10. Polystichum oblongipinnarum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 10. Polystichum oblongipinnarum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habit of plants.—B. Adaxial lamina.—C. Abaxial lamina.
FIGURE 15. Polystichum superum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 15. Polystichum superum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habitat and plant.—B. Petioles.—C–E, G, H. Portions of abaxial lamina.—D, E. Portions of rachises with pinnae.—F, L. Polar and equatorial views of spores under SEM.—J. Sporangium before dehiscence.—K. Outside view of the cave where the new species was discovered.
FIGURE 13. Polystichum rectum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 13. Polystichum rectum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habitat and plant.—B. Portions of petioles.—C. Abaxial view of leaf.—D, E. Portions of rachises with pinnae.—F. Portion of abaxial lamina.—G, K. Polar and equatorial views of spores with and without perispores under SEM.—H. Sporangium before dehiscence.—J. Limestone mountain where the new species was discovered.
FIGURE 9. Polystichum oblongipinnarum Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 9. Polystichum oblongipinnarum Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habitat and plant.—B. Abaxial view of lamina.—C. Adaxial view of lamina.—D. Portion of lamina.—E, F. Outside and inside views of the cave where the new species was discovered.
FIGURE 8. Polystichum malipoense Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 8. Polystichum malipoense Li Bing Zhang, M.Q.Han & Yan Liu.—A. Two leaves.—B. Portion of abaxial lamina.
FIGURE 7. Polystichum malipoense Li Bing Zhang, M.Q in Eight new species of Polystichum (subg. Haplopolystichum; Dryopteridaceae) from limestone caves in Guangdong and Yunnan, China, with reference to species diversity in the karst terrains at high elevations in subtropical areas
FIGURE 7. Polystichum malipoense Li Bing Zhang, M.Q.Han & Yan Liu.—A. Habitat and plant.—B. Adaxial view of leaves.—C. Abaxial view of lamina.—D. Portion of abaxial lamina.—E. Adaxial view of pinna.—F. Portions of petioles.—G. Portion of pinna.—H, K. Polar and equatorial views of spores with and without perispores under SEM.—J. Inside view of the cave where the new species was discovered.
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.