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. Agathiphaga vitiensis, female postabdomen. A in The female postabdomen and internal genitalia of the basal moth genus Agathiphaga (Insecta: Lepidoptera: Agathiphagidae): morphology and phylogenetic implications†
Figure 1. Agathiphaga vitiensis, female postabdomen. A, lateral view; B, dorsal view; C, ventral view. Abbreviations: mcl, membranous collar behind segment VIII; osc, oviscapt; spi, spiracle; st, sternum; tg, tergum; vplVIII, venter-VIII-plate; y-scl, y-shaped sclerite. Scale bar = 1 mm.
Figure 6 in The female postabdomen and internal genitalia of the basal moth genus Agathiphaga (Insecta: Lepidoptera: Agathiphagidae): morphology and phylogenetic implications†
Figure 6. Agathiphaga vitiensis, female postabdomen, cross-sections (thickness 1 Mm). A, segment VII, first region of spermathecal duct; B, segment VII, second region of spermathecal duct; C, segment VII, third region of spermathecal duct, note mesocuticular portion of thickened intima (arrow head); D, segment VI, spermatheca; E, segment VII, ductus bursae and common oviduct; F, segment VI, bursa copulatrix. Abbreviations: ag, accessory gland; bc, bursa copulatrix; bcd, ductus bursae; i, intima; ovc, common oviduct; sp, spermatheca; spd, spermathecal duct. Scale bars = 50 Mm.
Figure 2 in The female postabdomen and internal genitalia of the basal moth genus Agathiphaga (Insecta: Lepidoptera: Agathiphagidae): morphology and phylogenetic implications†
Figure 2. Agathiphaga vitiensis, female postabdominal apex in oblique ventral view; scanning electron micrograph. Abbreviations: cop, cloacal opening; mcl, membranous collar behind segment VIII; vmi; ventromedial furrow on oviscapt probe. Scale bar = 100 Mm.
Figure 4 in The female postabdomen and internal genitalia of the basal moth genus Agathiphaga (Insecta: Lepidoptera: Agathiphagidae): morphology and phylogenetic implications†
Figure 4. Agathiphaga vitiensis, female postabdomen, cross-sections (thickness 1 Mm). A, segment VII, anterior and posterior apophyses; B, posterior part of the oviscapt probe with the median rod of the Y-shaped sclerite, note tendons of muscle 24 (arrow heads) fusing with lateral margins of completely flattened rectum; C, segment VIII and anterior part of the oviscapt probe with the arms of the Y-shaped sclerite separated; D, boundary region of segment VII and VIII; E, genital chamber in segment VII. Abbreviations: ag, accessory gland; apad, dorsal anterior apophysis; apav, ventral anterior apophysis; app, posterior apophysis; gc, genital chamber; osc, oviscapt; tg, tergum; y-scl, y-shaped sclerite. Scale bars = 100 Mm.
Figure 5 in The female postabdomen and internal genitalia of the basal moth genus Agathiphaga (Insecta: Lepidoptera: Agathiphagidae): morphology and phylogenetic implications†
Figure 5. Agathiphaga vitiensis, female postabdomen, right body half in median view (reconstruction from serial sections). A, musculature, overview; B, musculature, detail. Abbreviations: apad, dorsal anterior apophysis; apav, ventral anterior apophysis; app, posterior apophysis; cop, cloacal opening; mcl, membranous collar behind segment VIII; osc, oviscapt; st, sternum; tg, tergum; vplVIII, venter-VIII-plate. Scale bars = 1 mm.
Figure 3 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 3. Digital reconstructions and computed tomography (CT) slices of bovid skulls, illustrating the frontal sinuses and related anatomy, in Nanger granti (A–C; YPM 11526), Cephalophus leucogaster (D, F; AMNH 52802), and Raphicerus campestris (E, G; YPM 10276). In C, note the distinct frontal sinus that invades the trabecular bone, is bounded by cortical bone on all sides, and is distinctly separated from the olfactory turbinals below. This contrasts with the condition in E, in which a distinct recess above the olfactory turbinals is pressed into the frontal bone, but does not actually invade the trabecular bone. In D, no recess exists at all, and the space beneath the frontals is entirely occupied by turbinals. The dashed lines in A, F, and G indicate the approximate positions of the coronal CT slices in C, D, and E, respectively. The boxed areas in A and B indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. Scale bars: 5 cm.
Figure 6 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 6. Digital reconstructions from computed tomography (CT) scan data of the skulls of Bubalus depressicornis (A–B; AMNH 152684), Bison bison (C–D; YPM 9023), and Budorcas taxicolor (E–F; AMNH 110476), illustrating frontal sinuses and related anatomy. Skulls are shown in lateral (B, C, E) and dorsal (A, D, F) views. The boxed areas indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. The horns have been truncated in C–F. Scale bars: 5 cm.
Figure 9 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 9. Digital reconstructions from CT scan data of the skulls of Taurotragus oryx (A–B; YPM 10471), Aepyceros melampus (C–D; YPM 9597), Oreotragus oreotragus (E–F; AMNH 27827), and Pantholops hodgsonii (G–H; AMNH 55819), illustrating frontal sinuses and related anatomy. Skulls are shown in lateral (A, C, E, G) and dorsal (B, D, F, H) views. The boxed areas indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. The horn sheaths have not been rendered in A and B, and they are truncated in C–H. Scale bars: 5 cm.
Figure 1 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 1. Phylogeny of Bovidae based on a supertree published by Fernández & Vrba (2005). Taxa with frontal sinuses are in black; taxa without sinuses are in white. States between nodes were inferred using ancestral parsimony state reconstruction. *Taxa that engage in ramming behaviour (data from Caro et al., 2003).
Figure 8 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 8. Digital reconstructions from computed tomography (CT) scan data of the skulls of Hippotragus niger (A–B; AMNH 83606) and Kobus ellipsyprymnus (C–D; YPM 9101), illustrating frontal sinuses and related anatomy. Skulls are shown in lateral (A, C) and dorsal (B, D) views. The boxed areas indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. The horn sheaths have not been rendered on A and B, and the horns were truncated on all images. Scale bars: 5 cm.
Figure 7 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 7. Digital reconstructions from computed tomography (CT) scan data of the skulls of Capra sibirica (A–B; AMNH 54906), Ovis canadensis (C–D; YPM 7376), Naemorhedus goral (E–F; AMNH 43033), and Oreamnos americanus (G–H; AMNH 128105), illustrating frontal sinuses and related anatomy. Skulls are shown in lateral (A, C, E, G) and dorsal (B, D, F, H) views. The boxed areas indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. The horn sheaths have not been rendered in A–D and G–H. Scale bars: 5 cm.
Figure 2 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 2. Phylogeny of Bovidae based on a composite supertree constructed as indicated in the text. Taxa with frontal sinuses are in black; taxa without sinuses are in white. States between nodes were inferred using ancestral parsimony state reconstruction. *Taxa that engage in ramming behaviour (data from Caro et al., 2003).
Figure 4 in Evolution and functional morphology of the frontal sinuses in Bovidae (Mammalia: Artiodactyla), and implications for the evolution of cranial pneumaticity
Figure 4. Digital reconstructions from computed tomography (CT) scan data of the skulls of Damaliscus lunatus (A–B; YPM 9586) and Antidorcas marsupialis (C–D; AMNH 233055), illustrating the frontal sinuses and related anatomy. Skulls are shown in lateral (A, C) and dorsal (B, D) views. The boxed areas indicate the region of the skull that has been rendered partially transparent in order to visualize the anatomy of the frontal sinuses. The horns have been truncated in C and D. Scale bars: 5 cm.
Figure 6 in The skull of Monolophosaurus jiangi (Dinosauria: Theropoda) and its implications for early theropod phylogeny and evolution
Figure 6. Braincase of Monolophosaurus jiangi in right lateral view (looking within the lateral temporal fenestra): A, photograph; B, line drawing. Abbreviations: atr, anterior tympanic recess; bs, basisphenoid; dtr, dorsal tympanic recess; eo, exoccipital–opisthotic; epi, epipterygoid; fo, fenestra ovalis; ls, laterosphenoid; pa, parietal; pn, pneumatopore; pr, prootic; pt, pterygoid; q, quadrate; V, foramen for cranial nerve V; VII, foramen for cranial nerve VII.
Figure 3 in The skull of Monolophosaurus jiangi (Dinosauria: Theropoda) and its implications for early theropod phylogeny and evolution
Figure 3. Cranial crest of Monolophosaurus jiangi in right lateral view: A, photograph; B, line drawing. Abbreviations: acf, accessory antorbital opening (fossa); fcr, frontal contribution to the crest; forb, orbital rim of the frontal; jaf, jugal accessory foramen; ldp, dorsal projection of the lacrimal; mantfoss, antorbital fossa on the maxilla; nantfoss, antorbital fossa on the nasal; nfen, nasal fenestrae; nfor, nasal foramina; nk, nasal knobs; npp, posterior projection of the nasal; pal, palatine; pmmp, maxillary process of the premaxilla; pmnvp, ventral projection of the nasal process of the premaxilla; po, postorbital. Scale bar represents 100 mm.
Figure 28. A, B in Towards a phylogeny of the flesh flies (Diptera: Sarcophagidae): morphology and phylogenetic implications of the acrophallus in the subfamily Sarcophaginae
Figure 28. A, B. one of 120 most parsimonious trees obtained from the analysis under implied weights (k = 3) showing character distribution within Sarcophaga s.l. Black boxes, uniquely derived character states; white boxes, homoplasious character states. Bootstrap (3000 replicates) (bold) and relative Bremer support (italics) are given below branches.
Figure 27. A, B in Towards a phylogeny of the flesh flies (Diptera: Sarcophagidae): morphology and phylogenetic implications of the acrophallus in the subfamily Sarcophaginae
Figure 27. A, B. one of 120 most parsimonious trees obtained from analysis under implied weights (k = 3) showing character distribution. Black boxes, uniquely derived character states; white boxes, homoplasious character states. Bootstrap percentiles (3000 replicates) (bold) and relative Bremer support (italics) are given below branches.
Figure 25 in Towards a phylogeny of the flesh flies (Diptera: Sarcophagidae): morphology and phylogenetic implications of the acrophallus in the subfamily Sarcophaginae
Figure 25. Strict consensus tree of 120 most parsimonious trees (length 396) obtained from analysis under implied weights (k = 3), not showing resolution for Sarcophaga s.l.
Figure 2 in The skull of Monolophosaurus jiangi (Dinosauria: Theropoda) and its implications for early theropod phylogeny and evolution
Figure 2. Skull of Monolophosaurus jiangi in right lateral view. Anterior region of the snout: A, photograph; B, line drawing. Posterior region of the skull: C, photograph; D, line drawing. Abbreviations: acf, accessory antorbital opening (fossa); antfos, antorbital fossa; for, foramen; forb, orbital rim of the frontal; gr, groove; ip, inflection point; jaf, jugal accessory foramen; jcp, jugal corneal process; jfor, jugal foramen; jrug, rugosity on the jugal; ldp, dorsal projection of the lacrimal; ltfos, lateral temporal fossa; mar, anterior ramus of the maxilla; masr, ascending ramus of the maxilla; mk, kink in the maxilla; nk, nasal knobs; npp, posterior projection of the nasal; pmndp, dorsal projection of the nasal process of the premaxilla; pmnvp, ventral projection of the nasal process of the premaxilla; por, postorbital rugosity; q, quadrate; qj, quadratojugal; snf, subnarial foramen; sop, suborbital projection; sqk, kink in the squamosal; sqpp, posterior process of the squamosal; sqs, squamosal shelf. Scale bar represents 100 mm.
Figure 23 in Towards a phylogeny of the flesh flies (Diptera: Sarcophagidae): morphology and phylogenetic implications of the acrophallus in the subfamily Sarcophaginae
Figure 23. Macronychia aurata (Miltogramminae): A, acrophallus, lateral. Sarcophila sp. (Paramacronychiinae): B, acrophallus, lateral; C, acrophallus, anterior. Brachicoma devia (Paramacronychiinae): D, acrophallus, lateral; E, acrophallus, anterior; F, acrophallus, anterior. Abbreviations: J, juxta; MS, median stylus; PT, phallic tube.
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.