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”
Fig. 6 in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 6 Thin-sections of Plastremys lata. Images in a and d are in normal transmitted, b and c in cross-polarised light. a Costal fragment (NHMUK R 2251). b Close-up of the central part of the section. Note well preserved interior bone tissue. c Close-up of the external cortex showing a clear front of bone tissue alteration (upper part of image). d Close-up of the internal cortex, consisting of parallel-fibred bone. Abbreviations: CB cancellous bone; ECO external cortex; ICO internal cortex; ISF interwoven structural fibres; LB lamellar bone; PFB parallel-fibred bone; trFB transversally sectioned fibre bundles
Fig. 3 in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 3 Thin-sections of solemydid specimens shown in normal transmitted (left) and cross-polarized light (right). a Solemys vermiculata, costal fragment (MCNA-15047). b Solemys sp., costal fragment (UPUAM-14001). c Solemys sp., costal fragment (UPUAM- 14001), close-up of external cortex. Abbreviations: CB cancellous bone; ECO external cortex; ICO internal cortex; ISF interwoven structural fibres; PFB parallel-fibred bone
Fig. 4 in Shell bone histology of solemydid turtles (stem Testudines): palaeoecological implications
Fig. 4 Thin-sections of Solemydidae aff. Helochelydra sp. a External cortex and interior cancellous bone of costal (MNCN 59503) in normal transmitted light. b Cancellous bone and external cortex of peripheral (MNCN 59503). c Internal cortex of plastral fragment (hyo- or hypoplastron, MNCN 59503) in normal transmitted (left) and crosspolarized light (right). Note that image c is facing upside-down due to technical constraints. Abbreviations: CB cancellous bone; ECO external cortex; ICO internal cortex; ISF interwoven structural fibres; PFB parallel-fibred bone
Fig. 5 Osmylus fulvicephalus, mandibles. a Left mandible, posterior view. b in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 5 Osmylus fulvicephalus, mandibles. a Left mandible, posterior view. b Right mandible, anterior view. Labels: con =condyle (primary joint), mp=molar process, smj =secondary mandibular joint, 11=M. craniomandibularis internus
Fig. 8 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 8 Osmylus fulvicephalus, head, cross sections. a Level of ganglion frontale. b Level of compound eye. c Level of brain. Labels: alb=anterior labium, ata=anterior tentorial arm, cl=clypeus, con= condyle (primary joint), dcer=deuterocerebrum, md=mandible, mdg= mandibular gland, noc=ocellar nerve, oc = ocellus, onp=optic neuropils, pcer=protocerebrum, ph=pharynx, sc=scapus, smj=secondary mandibular joint, soeg=suboesophageal ganglion, 1=M. tentorioscapalis anterior, 2 = M. tentorioscapalis posterior, 6 = M. scapopedicellaris medialis, 9 = M. frontoepipharyngalis, 12 =M. craniomandibularis externus, 17 = M. tentoriocardinalis, 18 = M. tentoriostipitalis, 23 = M. stipitopalpalis internus, 29 =M. tentoriopraementalis inferior, 34 = praementopalpalis externus, 41a, b = M. frontohypopharyngalis, 44 = M. clypeobuccalis, 46 = M. frontobuccalis posterior, 67 = M. transversalis buccae
Fig. 6 in Head morphology of Osmylus fulvicephalus (Osmylidae, Neuroptera) and its phylogenetic implications
Fig. 6 Osmylus fulvicephalus, maxilla, three-dimensional reconstruction. a Lateral view. b Frontal view. Labels: ata=anterior tentorial arm, ca=cardo, dta=dorsal tentorial arm, ga =galea, lac =lacinia, mxp= maxillary palp, sti=stipes, tb= tentorial bridge, 15=M. craniocardinalis externus, 17=M. tentoriocardinalis, 18= M. tentoriostipitalis, 19= M. craniolacinialis, 20= M. stipitolacinialis, 21 = M. stipitogalealis, 22 = M. stipitopalpalis externus, 23 = M. stipitopalpalis internus, 24 = M. palpopalpalis maxillae primus
Fig. 3 in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 3 MCC discrete coalescent tree of 12S rDNA, 16S rDNA, COI, RAG-1, and TYR sequences. Node circles in red represent posterior probabilities (>0.95) and black nodes (<0.95) and their sizes indicate lower support. Blue bars by nodes denote 95% highest posterior density ranges. The map depicted at the lower left represents the marine incursions in northwestern South America (in dark blue) and the PEBAS wetland lake (light blue) and the red arrows point to likely dispersal routes. The drawing of water in the tree depicts the timing of marine incursions in the Llanos Basin and in the Amazonas/Solimões Basin.
Fig. 2 in Unraveling unique island colonization events in Elachistocleis frogs: phylogeography, cryptic divergence, and taxonomical implications
Fig. 2 Bayesian tree inferred by Mr. Bayes based on the data set (n = 91) of concatenated 12S, 16S rDNA, COI, RAG-1, and TYR sequences. Values in red by nodes at each side (left and right) or top and bottom of the dash (/) represent Bayesian posterior probabilities (>90%) and Maximum Likelihood bootstrap values (>75%), respectively.
FIGURE 47 in Tolypella mongolica (Charophyceae, Characeae): A new dioecious charophyte species from the center of Eurasia and implications for charophyte taxonomy, including the validation of T. porteri and the new combination for T. jwalae
FIGURE 47. ML phylogenetic tree of Characeae (model TIM3+I+G) showing the position of the new species based on rbcL sequence data (46 sequences, 1354 aligned positions). Supports [(BP)> 50% and (PP)> 0.95: ML/BI] are provided above/below the branches. Branches received 100% BP and 1.00 PP support, and the newly obtained sequences of Tolypella mongolica sp. nov. are shown in bold. Sequences of the different species carrying one genotype are marked with grey. Tolypella sections are based on Wood & Imahori (1965). Prepared by V.Yu. Nikulin.
FIG. 1 in Molecular Phylogenetics of the Clingfishes (Teleostei: Gobiesocidae)- Implications for Classification
FIG. 1. Representatives of the Gobiesocidae. (A) Trachelochismus pinnulatus, Trachelochisminae (photograph by P. Caiger); (B) Dellichthys morelandi, Trachelochisminae (P. Caiger); (C) Kopua minima, Trachelochisminae (K. Fujiwara); (D) Haplocylix littoreus, Haplocylicinae (K. Conway); (E) Lepadogaster candolii, Lepadogastrinae (M. Wagner); (F) Gouania willdenowi, Lepadogastrinae (S. Iglésias); (G) Chorisochismus dentex, Chorisochisminae (M. Nieuwoudt); (H) Diplocrepis puniceus, Diplocrepinae (D. Hoffmann); (I) Gastrocyathus gracilis, Diplocrepinae (K. Conway); (J) Gobiesox cephalus, Gobiesocinae (K. Conway); (K) Eckloniaichthys scylliorhiniceps, Gobiesocinae (G. Zsilavecz); (L) Aspasma ubauo, Aspasminae (S. Yamamoto); (M) Discotrema crinophilum, Diademichthyinae (M. Erdmann); (N) Diademichthys lineatus, Diademichthyinae (M. Erdmann); (O) Alabes parvula, Cheilobranchinae (B. Hutchins).
Data of measurement report: size-resolved particle effective density measured by the AAC-SMPS and implications for chemical composition
Open the record for dataset details and reuse information.
Datasets for the article "Redox melting of garnet lherzolite: Generation of carbonated silicate and sulfide melts and implications for OIB formation from chalcophile and redox-sensitive elements"
Open the record for dataset details and reuse information.
Trait-based functional groups of testate amoebae: classification and ecological implications
Open the record for dataset details and reuse information.
Colombian Departments Exposure to Global Supply Chain Disruptions: Implications for Regional Inflation Differentials
Open the record for dataset details and reuse information.
Figure 9 in Tegmina-size variation in a Neotropical cricket with implications on spectral song properties
Figure 9. Lerneca inalata beripocone: Examples of dominant frequency (DF) (left) and syllable duration (right), based on individual calling song data shown in Figure 8. Study sites: (a) SESC, flooded forest edge (FFE); (b) Pouso Alegre, flooded forest 1 (FF1); (c) Pouso Alegre, flooded forest 2 (FF2); (d) Pouso Alegre, flooded forest 3 (FF3).
Figure 6 in The evolutionary and biomechanical implications of snout and proboscis morphology in Caenogastropoda (Mollusca: Gastropoda)
Figure 6. Transverse histological sections through the snout or proboscis of three caenogastropod taxa. (A) Strombus gibberulus (Strombidae) snout; (B) S. gibberulus ventral snout; (C) S. gibberulus snout wall; (D) Conuber sordidus (Naticidae) everted proboscis; (E) C. sordidus circular sheath and accessory proboscis retractor muscles; (F) C. sordidus proboscis wall; (G) Monetaria annulus (Cypraeidae) introverted proboscis; (H) M. annulus aortic muscles and ventrolateral proboscis retractor muscles; (I) M. annulus proboscis wall. Scale bars: (A, B, G) 1 mm; (C, F, I) 200 µm; (D, E, H) 500 µm; for abbreviations see Appendix 2.
Figure 1 in A comparison of social behaviour in two rodent species: implications for the mating system of mound-building mice, Mus spicilegus
Figure 1. Median number of amicable, offensive, and defensive behaviours displayed by males (black and grey bars), and females (dotted and hatched bars) during male–female encounters. Sex-specific significant statistics, Mann-Whitney U test: * p,0.05.
FIG. 2 in Use of cnidae in taxonomy: implications from a study of Acrozoanthus australiae (Hexacorallia, Zoanthidea)
FIG. 2. Unexploded nematocyst capsules in Acrozoanthus australiae. (A, B) b-Mastigophores from the tentacle tip of a polyp 5.0 mm diameter; (C) two holotrichs from the scapus of a polyp 7.5 mm diameter; (D) p-Mastigophore from lower region of filament of a polyp 7.0 mm diameter. Photomicrographs with 6100 oil immersion objective, 66.7 photo-ocular; Nomarski interference microscopy. Scale bar: 10 mm. Specimen from Gusang, South Sulawesi, Indonesia.
FIG. 9 in Use of cnidae in taxonomy: implications from a study of Acrozoanthus australiae (Hexacorallia, Zoanthidea)
FIG. 9. Bimodal area frequency distributions for nematocyst capsules of Acrozoanthus australiae polyp 4.0 mm diameter from Indonesia. In this polyp (bud) the nematocyst capsule populations apparently consist of large residual cnidae derived from the parent polyp (black bars) and smaller capsules produced in situ (white bars). All left y- axes are frequency, n~100. (A) Lower filament b-mastigophores, no overlap of populations (means~129.5 and 212.5 mm2). (B) Upper filament b-mastigophores, no overlap of populations means~140 and 236.5 mm2. (C) Tentacle tip b-mastigophores (stippled bars), showing data also plotted as cumulative percentages ($). (D) As (C) but cumulative percentages on probability scale, split at the point of flexure, and expanded (see text) ($ in situ population, # residual population); the series means~205 and 255 mm2 (corresponding to 50% probability). (E) Upper filament p- mastigophores, whole sample, means~296 and 351 mm2. (F) Scapus holotrichs, whole sample, means~295 and 335 mm2.
FIGURES 1–3. Nothotrichia shasta larva. 1, right lateral view. 2 in Larva of Nothotrichia shasta Harris & Armitage (Trichoptera: Hydroptilidae) from California, USA, with its phylogenetic and taxonomic implications
FIGURES 1–3. Nothotrichia shasta larva. 1, right lateral view. 2, right fore, middle, and hind legs, right posterolateral view. 3, right anal proleg, right lateral view.
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.