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.
1,790
datasets available to search
ShareScore release 0.9.0
Dataset results
1,790 results for “taxonomic status”
FIGURE 3 in Questions on the taxonomic status of species of Protoholozoa Kott 1969 (Ascidiacea Aplousobranchia, Holozoidae) with a description of a new genus
FIGURE 3. Protoholozoa pedunculata: A,B, the thorax of two zooids opened along the endostyle and stained with hemalum; C, zooid with incubated embryos in the thorax. Scale bars = 2 mm.
FIGURE 2 in Questions on the taxonomic status of species of Protoholozoa Kott 1969 (Ascidiacea Aplousobranchia, Holozoidae) with a description of a new genus
FIGURE 2. Protoholozoa pedunculata: A,B, two zooids of a colony from the Indian Ocean; C,D, larvae incubated inside the thorax. Scale bars = 2 mm.
FIGURE 4 in Questions on the taxonomic status of species of Protoholozoa Kott 1969 (Ascidiacea Aplousobranchia, Holozoidae) with a description of a new genus
FIGURE 4. Protoholozoa pedunculata: A,B, two tadpoles of a colony from the Indian Ocean, scale bar = 1 mm. C, tadpole, specimen from South Orkney Islands (USNM), scale bar = 0.5 mm. D, tadpole, specimen from the Scotia Arc (MZUC) scale bar = 0.6 mm.
FIGURE 3 in The taxonomic status of Aphodius insperatus Petrovitz, A. longipennis Rakovič and A. inylchekensis Frolov (Coleoptera: Scarabaeidae: Aphodiinae)
FIGURE 3. Aphodius Helwig, spp. Map of locality records. Black square – A. insperatus Petrovitz; white square – holotype of A. longipennis Rakovič; triangle – A. inylchekensis Frolov.
FIGURES 2A–F. Aphodius Helwig, spp. A, B, D, E, A in The taxonomic status of Aphodius insperatus Petrovitz, A. longipennis Rakovič and A. inylchekensis Frolov (Coleoptera: Scarabaeidae: Aphodiinae)
FIGURES 2A–F. Aphodius Helwig, spp. A, B, D, E, A. insperatus Petrovitz; C, F, A. inylchekensis Frolov; A, D, paratype of A. insperatus, male; B, E, holotype of A. longipennis Rakovič, male; F, holotype, male; C, paratype, male; A–C, protibiae in ventral, lateral and dorsal view; D–F, aedeagus in dorsal and lateral view.
FIGURES 1A–G. Aphodius Helwig, spp. A–D, A in The taxonomic status of Aphodius insperatus Petrovitz, A. longipennis Rakovič and A. inylchekensis Frolov (Coleoptera: Scarabaeidae: Aphodiinae)
FIGURES 1A–G. Aphodius Helwig, spp. A–D, A. insperatus Petrovitz; E–G, A. inylchekensis Frolov; A, B, paratype of A. insperatus, male; C, D, holotype of A. longipennis Rakovič, male; C, G, holotype, male; A, E, paratype, male; A, C, E, G, habitus; B, D, F, labels.
FIGURE 13 in First discovery of Leuctra fusca tergostyla Wu, 1973 in Sichuan Province of China and notes on its taxonomic status, with new illustrations for Rhopalopsole sinensis Yang & Yang, 1993 (Plecoptera: Leuctridae)
FIGURE 13. Rhopalopsole sinensis Yang & Yang, 1993. A. Male abdomen, dorsal view; B. Male terminalia, dorsal view.
FIGURE 9 in First discovery of Leuctra fusca tergostyla Wu, 1973 in Sichuan Province of China and notes on its taxonomic status, with new illustrations for Rhopalopsole sinensis Yang & Yang, 1993 (Plecoptera: Leuctridae)
FIGURE 9. Leuctra fusca tergostyla Wu, 1973. A. Female abdomen, dorsal view; B. Female terminalia, dorsal view; C. Female terminalia, ventral view.
Figure 33. D in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 33. D. arnaudi: (a) male dorsal habitus; (b) paramera dorsal view; (c) paramera ventral view; (d) paramera lateral view (grey arrow indicates the position of longitudinal excavation on lateral view). D. asenjoi: (e) male dorsal habitus; (f) paramera dorsal view; (g) paramera ventral view; (h) paramera lateral view. D. barbarae (i) male dorsal habitus; (j) paramera dorsal view (black arrow indicating slight medial constriction); (k) paramera ventral view; (l) paramera lateral view (black arrow indicates the surface of longitudinal excavation, which is smooth with fine punctures (see D. paschoali) and the differentiation of both species).
Figure 24. D in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 24. D. filgueirasi: (a) male dorsal habitus; (b) female dorsal habitus; (c) female ventral habitus; (d) paramera dorsal view; (e) paramera ventral view; (f) paramera lateral view.
Figure 8 in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 8. (a) Part of D. ascanius ventral portion evidencing metasternum puncture, cox – coxae ely – elytra, mes – mesepisternum, met – metasternum. (b) Pygidium of D. reichei (c) abdominal ventrites of a male of D. ascaniusı (d) abdominal ventrites of a female of D. ascaniusı (e) abdominal ventrites of a female of D. sociusı (f) detail of the sixth ventrite of a female of D. Socius.
Figure 30. D in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 30. D. semicircularis: (a) Holotype male dorsal habitus; (b) type labels; (c) male dorsal habitus; (d) paramera dorsal view; (e) paramera ventral view; (f) paramera lateral view; (g) detail of 1st and 2nd elytral intersriae.
Figure 27 in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 27. Distribution map of D. quadraticepsı D. semicircularisı D. rondoniaensisı D. paschoali and D. feeri.
Figure 46. D in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 46. D. lucianomourai: (a) male dorsal habitus; (b) female ventral habitus; (c) paramera dorsal view; (d) paramera ventral view; (e) paramera lateral view.
Figure 45. D in Taxonomic revision of Dichotomius (Cephagonus) Luederwaldt 1929 and the taxonomic status of remaining Dichotomius Hope 1838 subgenera (Coleoptera: Scarabaeidae: Scarabaeinae: Dichotomiini)
Figure 45. D. itatiaiaensis: (a) male dorsal habitus; (b) female ventral habitus; (c) paramera dorsal view; (d) paramera ventral view; (e) paramera lateral view.
FIGURE 4. A in Taxonomic status of the Australian dingo: the case for Canis dingo Meyer, 1793
FIGURE 4. A summary of the evolutionary relationships among wolves, dingoes and modern domestic dogs. This figure is a synthesis of the various dog-origin models from vonHoldt et al. (2010), Cairns & Wilton (2016) and vonHoldt & Driscoll (2016). Dingoes and other ancient lineages of dog such as New Guinea singing dogs form a distinct lineage separate from modern domestic dogs which have undergone successive generations of artificial selection.
FIGURE 3 in Taxonomic status of the Australian dingo: the case for Canis dingo Meyer, 1793
FIGURE 3. Genetic variation among dingoes, New Guinea singing dogs, wolves and modern domestic dogs based on genomewide single-nucleotide polymorphism (SNP) data expressed using principal components analysis (PCA) representing 841 dogs (green), 24 dingoes (black), 5 New Guinea singing dogs (orange), 14 wolves (blue). Within the dogs there were 292 breed dogs (light green) and 549 village dogs (dark green). We genotyped each of these canid samples using the Illumina CanineHD 170 SNP chip (data from Cairns 2015 and Shannon et al. 2015). We analysed genotype data in PLINK 1.9 (Chang et al. 2015) by merging the datasets and removing SNPs that were missing in more than 10% of samples. The total remaining SNP markers were 166,019. We did the PCA in PLINK 1.9 and visualised the results using R (v 3.2.1). PC1 accounts for 49.2% of variation,
FIGURE 2. Cranial 3-D in Taxonomic status of the Australian dingo: the case for Canis dingo Meyer, 1793
FIGURE 2. Cranial 3-D reconstructions of a dingo (bottom) and a free-ranging dog (top), highlighting the differences in cranial morphology mentioned in the text. The dog cranium has been scaled to match the length of the dingo cranium to facilitate the comparison of feature shape. The dingo (male) was collected from Minburra Station in South Australia. The dog (female, 14.5 kg) was collected in 1981 from the Victorian Highlands (Evan Jones Collection).
FIGURE 1 in The Dogma of Dingoes-Taxonomic status of the dingo: A reply to Smith et al
FIGURE 1. Principal component analysis of 14 Gray Wolves, 40 Village dogs, 40 ancient dog breeds (Akita, Basenji, Chow Chow), 29 modern Australian dog breeds (Cattle dog and Australian Shepherd) from Shannon et al. (2015), and 23 Dingoes from Cairns et al. (2018). We filtered the data from the different studies to include only breeds of interest, and we kept shared SNPs using PLINK v1.90b5 (Chang et al. 2015). PC analysis was conducted using PLINK. Variation explained by the first five principal components was computed based on the eigenvalues of the first 20 components.
FIGURE 1 in Taxonomic status of the Australian dingo: the case for Canis dingo Meyer, 1793
FIGURE 1. An example of a typical dingo phenotype. Photograph depicts a male from K'gari-Fraser Island (Queensland) by John Williams.
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.