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.
323
datasets available to search
ShareScore release 0.9.0
Dataset results
323 results for “Venator”
FIGURE 4. A–C. Cranfillia mucronata. A. Habit. B. Pinna and venation pattern. C. Rhizome scale. D–F. Cranfillia caudata. D. Habit. E in The family Blechnaceae (Polypodiopsida) in Brazil: key to the genera and taxonomic treatment of Austroblechnum, Cranfillia, Lomaridium, Neoblechnum and Telmatoblechnum for southern and southeastern Brazil
FIGURE 4. A–C. Cranfillia mucronata. A. Habit. B. Pinna and venation pattern. C. Rhizome scale. D–F. Cranfillia caudata. D. Habit. E. Pair of basal pinnae showing venation. F. Rhizome scale. (A–C from F.S. Souza et al. 1482, BHCB; D–F from L.L. Giacomin et al. 1350, CESJ).
FIGURE 3. A–C. Austroblechnum penna-marina. A. Habit. B. Pinnae and venation pattern. C. Rhizome scale. D–F. Austroblechnum squamipes. D. Habit. E in The family Blechnaceae (Polypodiopsida) in Brazil: key to the genera and taxonomic treatment of Austroblechnum, Cranfillia, Lomaridium, Neoblechnum and Telmatoblechnum for southern and southeastern Brazil
FIGURE 3. A–C. Austroblechnum penna-marina. A. Habit. B. Pinnae and venation pattern. C. Rhizome scale. D–F. Austroblechnum squamipes. D. Habit. E. Base of blade showing pinnae and venation. F. Rhizome scale. (A–C from A. Salino et al. 14745, BHCB; D–F from A. Salino et al. 12036, CESJ).
FIGURE 2. Stylotrichium hortensiae. A. Floriferous branch. B. Abaxial surface showing the venation reticulodromous. C. Leaf transverse section. D. Uniseriate tector trichome. E. Uniseriate glandular trichome with multicellular head. F. Biseriate glandular trichome with unicellular head. G. Capitulum. H. Receptacles convex pilose. I. Corolla. J. Stamen. K. Style. L in Stylotrichium hortensiae (Asteraceae-Eupatorieae): A new species from Chapada Diamantina, Bahia, Brazil
FIGURE 2. Stylotrichium hortensiae. A. Floriferous branch. B. Abaxial surface showing the venation reticulodromous. C. Leaf transverse section. D. Uniseriate tector trichome. E. Uniseriate glandular trichome with multicellular head. F. Biseriate glandular trichome with unicellular head. G. Capitulum. H. Receptacles convex pilose. I. Corolla. J. Stamen. K. Style. L. Cypselae with subpaleaceous pappus. Illustrations by N. Nascimento.
FIGURE 3. Pteris normalis D. Don., A. Lamina. B. Stipes surface. C. Venation. D–G in The Pteris aspericaulis complex in India (Pteridaceae)
FIGURE 3. Pteris normalis D. Don., A. Lamina. B. Stipes surface. C. Venation. D–G. Scales of rhizome. H, I. Cells of pseudoindusium. J. Sporangium. K. Paraphyses. L, M. Spores.
FIGURE 13. Stegnogramma wilfordii—A. Habit. B. Scales. C. Upper stipe. D. Venation. E. Sori. C.-W. Chen Wade6010 in A newly recorded genus and twelve newly recorded species of ferns for Vietnam from Lang Biang Plateau
FIGURE 13. Stegnogramma wilfordii—A. Habit. B. Scales. C. Upper stipe. D. Venation. E. Sori. C.-W. Chen Wade6010.
FIGURE 2 in Venation patterns of neotropical blueberries (Vaccinieae: Ericaceae) and their phylogenetic utility
FIGURE 2. Maximum likelihood hypotheses based on nuclear and plastid sequence data of 32 species of Vaccinieae. Bootstrap support values greater than 50% are shown. A. Hypothesis obtained with RAxML (lnL= -8817.105059); primary frameworks reconstructed using Fast Optimization. B. Detail of the main topological difference in the hypothesis obtained with POY 5.0.1 Alpha (lnL= -8822.18034066).
FIGURE 4 in Venation patterns of neotropical blueberries (Vaccinieae: Ericaceae) and their phylogenetic utility
FIGURE 4. Nectar secretions of the basilaminar glands of Macleania pentaptera Hoerold (growing indoors). A. Abaxial view of leaf. B. Lateral view of leaf. Photos by James L. Luteyn.
FIGURE 1 in Venation patterns of neotropical blueberries (Vaccinieae: Ericaceae) and their phylogenetic utility
FIGURE 1. Variation of the prominent-lateral/midvein diameter ratios of 33 species of Vaccinieae. Measurements obtained directly from leaf clearings.
FIGURE 3 in Venation patterns of neotropical blueberries (Vaccinieae: Ericaceae) and their phylogenetic utility
FIGURE 3. Character state distribution on the maximum likelihood hypotheses based on nuclear and plastid sequence data of 32 species of Vaccinieae. Fast Optimization. Open circles are homoplasious characters, closed circles are non-homoplasious characters. Character number is above circles, character state number below (see Table 2 for character descriptions). Hypothesis obtained with RAxML.
FIGURE 3. Phyllanthera piforsteriana. Leaves and venation. A in Notes on Phyllanthera (Apocynaceae) from the upper Sepik of Papua New Guinea: P. lancifolia and P. piforsteriana sp. nov.
FIGURE 3. Phyllanthera piforsteriana. Leaves and venation. A, adaxial leaf surface; B, abaxial leaf surface. A–B from Takeuchi et al. 25595.
FIGURE 4. Myrcia federalis. Venation pattern. A. Diaphanized leaf. B in A new species of Myrcia (Myrtaceae) from the Federal District, Brazil, with micromorphological highlights
FIGURE 4. Myrcia federalis. Venation pattern. A. Diaphanized leaf. B. Exmedial secondary vein (key); tertiary alternate-percurrent vein (brackets), intramarginal vein (arrow); arched ultimate marginal vein (circle). C. areoles (rectangle) with terminal vein (arrow).
FIGURE 1. Myrcia federalis. A, B. Habit. C. Leaf, leaf venation pattern. D. Leaf transversal section. E. Bracts. F. Bracts and bracteoles. G in A new species of Myrcia (Myrtaceae) from the Federal District, Brazil, with micromorphological highlights
FIGURE 1. Myrcia federalis. A, B. Habit. C. Leaf, leaf venation pattern. D. Leaf transversal section. E. Bracts. F. Bracts and bracteoles. G. Petals (external view) hirsute with translucid glands. H. Petals (internal view) glabrous with translucid glands. I. Stamen (dorsal view) with dorsal-apical gland. J. Stamen (frontal view). K. Bracteoles (internal view). L. Flower longitudinal section. M. Ovary in transversal section. N. Fruit hirsute, with persistent calyx and bracteoles. A, E, F, G, H: Dias et al. 10 (CEN); B, I, J, K, L, M: Proença & Landrum 1289 (UB); C, D: Correia 279 (UB); N: Correia 115 (UB).
FIGURES 25−30. Wing venation and tergosternal sclerite. Figs 25–28. Wing venation. 25 in Descriptions of two new genera and six new species of ghost-moths (Lepidoptera Hepialoidea: Hepialidae) from south-eastern and southern Brazil
FIGURES 25−30. Wing venation and tergosternal sclerite. Figs 25–28. Wing venation. 25, Agripialus caparao sp. n., ♂. 26, A. itatiaia sp. n., ♀. 27–28, Mutipialus dilatus sp. n., ♂ (27), ♀ (28); arrow pointing to the connection between CuP and A veins in forewing. Figs 29–30. Tergosternal sclerite. 29, Agripialus variabilis sp. n., ♀; arrows pointing to the notch and the posterior portion. 30, Mutipialus dilatus sp. n., ♂.
Figure 1. Wing areas and wing venation defined for the morphological analyses. A in Phylogenetic relationships in the tribe Oxyptilini (Lepidoptera, Pterophoridae, Pterophorinae) based on morphological data of adults
Figure 1. Wing areas and wing venation defined for the morphological analyses. A, fore and hind wings. B, fore wing. C, hind wing in Geina didactyla.
FIGURE 4. Wing venation. A in Geometridae (Lepidoptera) of the Baikal region: identification keys and annotated catalogue with notes to DNA barcoding. Part 2. Archiearinae, Geometrinae, Sterrhinae
FIGURE 4. Wing venation. A—Jodis putata; B—Geometra papilionaria; C—Hemithea aestivaria; D—Chlorissa viridata; E—Holarctias rufinaria; F—Rhodostrophia vibicaria; G—Scopula ornata; H—Timandra rectistrigaria; I—Cyclophora albipunctata. A–D—hindwings; E, F—forewings; G–I—right pair of wings. R veins marked in red, M veins marked in blue, Cu veins marked in green, areole marked in teal.
Data from: Evolution of wing shape in hornets: why is the wing venation efficient for species identification?
Open the record for dataset details and reuse information.
Data from: A modern ampelography: a genetic basis for leaf shape and venation patterning in Vitis vinifera
Open the record for dataset details and reuse information.
Data from: Tovomita (Clusiaceae) from the Brazilian Atlantic Forest: taxonomy and utility of leaf venation characters at the species level
Open the record for dataset details and reuse information.
Figure 43 from: van Nieukerken EJ, Eiseman CS (2020) Splitting the leafmining shield-bearer moth genus Antispila Hübner (Lepidoptera, Heliozelidae): North American species with reduced venation placed in Aspilanta new genus, with a review of heliozelid morphology. ZooKeys 957: 105-161. https://doi.org/10.3897/zookeys.957.53908
Figure 43 Phylogeny of the cosmopolitan leafmining clade of Heliozelidae, part of fig. 1 in Milla et al. (2019) (Maximum likelihood phylogeny generated using iq-tree, topology from filtered_nt123 analysis). 'Antispila' Group II replaced by Aspilanta, branch supports removed and numbers of possible apomorphies added; see text.
Figure 44 from: van Nieukerken EJ, Eiseman CS (2020) Splitting the leafmining shield-bearer moth genus Antispila Hübner (Lepidoptera, Heliozelidae): North American species with reduced venation placed in Aspilanta new genus, with a review of heliozelid morphology. ZooKeys 957: 105-161. https://doi.org/10.3897/zookeys.957.53908
Figure 44 Neighbor-Joining tree of COI barcodes of Aspilanta species, including Nearest Neighbours. Several species of Coptodisca serve as outgroup. Data with country, and for Canada and United States also the abbreviation for Province or State, plus the BIN number.
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.