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.
4,753
datasets available to search
ShareScore release 0.9.0
Dataset results
4,753 results for “SHAPE”
FIG. 3 in Cranial shape and diet variation in Myotis species (Chiroptera: Vespertilionidae): testing the relationship between form and function
FIG. 3. Ordination plots of the first two canonical axes from two skull modules among dietary groups. A — Ordination plot of the first two canonical axes from parieto-occipital region (skull module 1) with deformation grids derived of each the canonical axis. The horizontal arrow indicated the direction of change in M. vivesi with respect to the consensus shape. The vertical arrow indicated the directions of change in insectivores with respect to the consensus shape; B — Ordination plot of the first two canonical axes from frontal-maxillary region (skull module 2) with deformation grids derived of each the canonical axis. The vertical arrow indicated the direction of change in M. vivesi with respect to the consensus shape. The horizontal arrow indicated the directions of change in facultative piscivores with respect to the consensus shape. Three diets were compared: insectivorous species (×), and facultative piscivorous species (●) and piscivorous species (é)
FIG. 2 in Cranial shape and diet variation in Myotis species (Chiroptera: Vespertilionidae): testing the relationship between form and function
FIG. 2. Image of an articulated skull and mandible used to measure the origin (Ot) and insertion (It) of the temporal muscle, and the origin (Om) and insertion (Im) of the masseter muscle. The angles between origin and insertion distances for temporal (OIt) and masseter muscles (OIm) were drawn
FIG. 4 in Cranial shape and diet variation in Myotis species (Chiroptera: Vespertilionidae): testing the relationship between form and function
FIG. 4. Ordination plots of the first two canonical axes from two mandibular modules among dietary groups. A — Ordination plot of the first two canonical axes from mandibular process area with deformation grids derived of each the canonical axis. The direction of changes in M. vivesi with respect to the consensus shape was indicated for the horizontal arrow. The directions of change in facultative piscivorous and insectivorous species with respect to the consensus shape were indicated for the vertical arrows; B — Ordination plot of the first two canonical axes from the alveolar region with deformation grids derived of each the canonical axis. The directions of change in M. vivesi and facultative piscivores with respect to the consensus shape were indicated for the double-headed arrow. Three dietary groups were compared: insectivorous species (×), facultative piscivorous species (●), and piscivorous species (ì)
FIG. 5 in Cranial shape and diet variation in Myotis species (Chiroptera: Vespertilionidae): testing the relationship between form and function
FIG. 5. Stretch factors of the masticatory muscles within genus Myotis. A — Stretch factors for the masseter muscle in each dietary group; B — Stretch factor for the temporal muscle in each dietary group. Data were presented with median, interquartile 25–75%, and minimum–maximum values indicated in box plots. Sample sizes appear below each box plot. Letters indicate differences among groups
FIG. 1 in Cranial shape and diet variation in Myotis species (Chiroptera: Vespertilionidae): testing the relationship between form and function
FIG. 1. Four configurations of points drew to register the shape of two skull and two mandibular characters in 22 Myotis species. A — Parieto-occipital region with 32 points, 1–32, lateral view; B — Frontal-maxillary region with 20 points, 1–20, lateral view; C — Mandible process area with 22 points, 1–18, 33–36, in lateral view. D — Alveolar region with 14 points, 19–32, lateral view
DNA-guided transcription factor cooperativity shapes face and limb mesenchyme
<p>Code and processed data for "DNA-guided transcription factor cooperativity shapes face and limb mesenchyme," Kim et al, Cell 2024.</p>
Crystal shape of Ranolazine bulk drug
<p>Crystal different shape was observed.</p>
Data from: Caveolae and Bin1 form ring-shaped platforms for T-tubule initiation
<p>Excitation-contraction coupling requires a highly specialized membrane structure, the triad, composed of a plasma membrane invagination, the T-tubule, surrounded by two sarcoplasmic reticulum terminal cisternae. Although the precise mechanisms governing T-tubule biogenesis and triad formation remain largely unknown, studies have shown that <span>caveolae participate in T-tubule formation</span> and mutations of several of their constituents induce muscle weakness and myopathies. <span>Here, we demonstrate that, at the plasma membrane, caveolae composed of caveolin-3 and Bin1 assemble into ring-like structures from which emerge tubes enriched in the dihydropyridine receptor. Overexpression of Bin1 leads to the formation of both rings and tubes and we show that Bin1 forms scaffolds on which caveolae accumulate to form the initial T-tubule. Cav3 deficiency caused by either gene silencing or pathogenic mutations causes defective ring formation and perturbed Bin1-mediated tubulation that may explain defective T-tubule organization in mature muscles. Our results uncover new pathophysiological mechanisms that may prove relevant to myopathies caused by Cav3 or Bin1 variants.</span></p>
Supplementary data to "Small-scale variation prevails in the cell shape patterning of green microalgae belonging to the genus Micrasterias (Zygnematophyceae, Viridiplantae)"
<p>The supplementary data consist of 24 TPS files including the landmark coordinates of 12 Micrasterias datasets (two separate digitisations for each dataset). In addition, the R script used for the analyses described in the paper submitted to "Evolutionary Biology" and the utility file with factors for Procrustes ANOVA are also included.</p> <p> </p>
Data for "Bootstrapping outperforms community-weighted approaches for estimating the shapes of phenotypic distributions"
<p>This repository contains datasets used in the manuscript entitled "Bootstrapping outperforms community-weighted approaches for estimating the shapes of phenotypic distributions" by Maitner et al. For details of these datasets, see https://www.authorea.com/users/244803/articles/523535-on-estimating-the-shape-and-dynamics-of-phenotypic-distributions-in-ecology-and-evolution. All datasets contain individual (and in some cases, organ-level) trait measurements.</p> <p>The dataset "all_traits_unscaled_RMBL.rds" was compiled by Christine Lamanna, Lindsey L Sloat, Andrew J. Kerkhoff, and Brian J. Enquist, Full details in https://www.authorea.com/users/244803/articles/523535-on-estimating-the-shape-and-dynamics-of-phenotypic-distributions-in-ecology-and-evolution</p> <p>The dataset "Julies_panama_data.xlsx" was compiled by Julie Messier and collaborators, full details here: https://doi.org/10.1111/j.1461-0248.2010.01476.x</p> <p>The dataset "TreefrogTadpoles.xlsx" was compiled by Nick Rasmussen, full details here: https://www.jstor.org/stable/44082203 </p> <p>The dataset "zooplankton_2019.zip" was compiled by Ewa Merz and Francesco Pomati. For more details, see www.aquascope.ch , <a href="https://github.com/mbaityje/plankifier">https://github.com/mbaityje/plankifier</a>, <a href="https://github.com/tooploox/SPCConvert">https://github.com/tooploox/SPCConvert</a>, and https://www.authorea.com/users/244803/articles/523535-on-estimating-the-shape-and-dynamics-of-phenotypic-distributions-in-ecology-and-evolution .</p>
FIGURE 12. Scanning electron micrographs for Rhopalimiris gagai n in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 12. Scanning electron micrographs for Rhopalimiris gagai n. sp., male (A) and female (B–O). A. Left lateral habitus. B–C. Head and pronotum, dorsal view. D. Antennomere IV. E. Posterior margin of pronotum and anterior scutellum. F. Metatarsus. G. Scent efferent system. H. Connexiva. I. Protarsus. J. Genital chamber. K. Ovipositor (gonapophysis) I. L–M. Posterior wall. N–O. Interramal lobe.
FIGURE 11. Scanning electron micrographs for Rhopalimiris amplissimus n in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 11. Scanning electron micrographs for Rhopalimiris amplissimus n. sp. (A–L) and Miyamotoa rubicunda Yasunaga, 1990 (M–O). A. Head and pronotum, dorsal view. B–C. Posterior margin of pronotum and scutellum. D, M. Anterior body, left lateral view. E. Scent efferent system. F. Cuneus and membrane. G–H. Mesotibia. I. Ovipositor (gonapophysis) I. J, O. Posterior wall. K. Dorsal structure. L. Interramal lobe. N. Genital chamber.
FIGURE 10. Scanning electron micrographs for Eurystylus yixuanae n in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 10. Scanning electron micrographs for Eurystylus yixuanae n. sp., E. coelestialium (Kirkaldy, 1902), male (H, M) and female (N), E. sauteri (Poppius), male (I, O) and E. ryukyus (Yasunaga, Nakatani & Chérot), male (K–L). A, J. Anterior body, left lateral view. B. Anterior forewing, left lateral view. C. Scent efferent system. D, M. Genital segment, left lateral view. E. Matatarsus. F. Pretarsal structure of mesoleg. G. Protarsus. H–I, Metatarsus. K–L, N–O. Field of eye-black micro-setae along inner margin of eye on frons.
FIGURE 9 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 9. Scanning electron micrographs for female (A–L) and male (M–O) of Eocalocoris gotohi n. sp. (A–F), Eo. hirashimai Miyamoto & Yasunaga (G–I) and Eo. albicerus Yasunaga & Takai (J–O). A, B, L. Genital chamber, dorsal view. C. Sclerotized rings. D, G, J. Posterior wall. F, I, K. Interramal lobe. E. Interramal sclerite. H. Dorsal structure. M. Left paramere. N. Apical part of vesica. O. Secondary gonopore.
FIGURE 8 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 8. Scanning electron micrographs for female of Eocalocoris gotohi n. sp. (A–H) and Eo. hirashimai Miyamoto & Yasunaga (I–O). A, I. Anterior body, dorsal view. B, L. Left lateral habitus. C, J. Head and anterior pronotum. D, K. Scutellum and corium. E, M. thoracic pleura, left lateral view. F, N. Cuneus and membrane. G. Protarsus. H. Pretarsal structure of proleg. I. Mesotarsus.
FIGURE 7 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 7. Male (A–C) and female (D–F) genitalia of Taiwanocapsus luteocordatus n. sp. A. Left paramere. B. Right paramere. C. Vesica. D. Posterior wall. E. Ovipositor (gonapophysis) I. F. Genital chamber, dorsal view. Scale bars 0.2 mm.
FIGURE 6 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 6. Male (A–C) and female (D–G) genitalia of Rhopalimiris gagai n. sp. A. Left paramere. B. Right paramere. C. Vesica. D. Posterior wall. E. Ovipositor (gonapophysis) I. F. Genital chamber, dorsal view. G. Sclerotized rings and adjacent structures. Scale bars 0.2 mm.
FIGURE 4 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 4. Female genitalia and egg (I–J) of Eocalocoris gotohi n. sp. (A–D), Eo. hirashimai Miyamoto & Yasunaga (E–F) and Rhopalimiris amplissimus n. sp. (G–J). A, B, E. Genital chamber. C, F, H. Ovipositor (gonapophysis) I. D. Posterior wall. G. Sclerotized rings and adjacent structures. Scale bars 0.2 mm.
FIGURE 1 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 1. Habitus images of live individuals of mirine plant bugs known from Taiwan. A–B. Eurystylus yixuanae n. sp., female (courtesy of Y.X. Hsieh). C. E. sauteri (Poppius), female. D. Same, head. E. E. ryukyus (Yasunaga, Nakatani & Chérot), male. F. Rhopalimiris gagai n. sp., male (courtesy of I. S. Lin).
FIGURE 5 in New genera and new species of remarkably large-sized or uniquely-shaped mirine plant bugs from Taiwan (Heteroptera: Miridae: Mirinae)
FIGURE 5. Male (A–C) and female (D–H) genitalia of Eurystylus yixuanae n. sp. A. Left paramere. B. Right paramere. C. Vesica. D. Genital chamber, dorsal view. E. Same, ventral view. F. Sclerotized rings and adjacent structures. G. Ovipositor (gonapophysis) I. H. Posterior wall. Scale bars 0.1 mm. Abbreviations: FL, fourth lobal sclerite; ML, median lobal sclerite; TL, third lobal sclerite (sensu Yasunaga et al. 2017).
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.