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.
4,841
datasets available to search
ShareScore release 0.9.0
Dataset results
4,841 results for “Generic”
Figure 4 in Taxonomic position of and generic distinction between Parepactophanes Kunz, 1935 and Taurocletodes Kunz, 1975 (Copepoda, Canthocamptidae incertae sedis), with description of a new species from the Black Sea
Figure 4. Taurocletodes tumenae sp. nov. A, rostrum and right antennule ♂, dorsal (for complete armature of segments 3–4 see B). B, antennule ♂, segments 3–10, ventral. C, maxilla (inset showing distal syncoxal endite). D, anal somite and left caudal ramus.
Figure 9 in Taxonomic position of and generic distinction between Parepactophanes Kunz, 1935 and Taurocletodes Kunz, 1975 (Copepoda, Canthocamptidae incertae sedis), with description of a new species from the Black Sea
Figure 9. Taurocletodes tumenae sp. nov. A, P1 endopod ♀, penicillate seta on enp-3 (tubular extension arrowed). B, antennule ♂, segments 5–7, anterior (modified elements arrowed). C, fifth and sixth legs ♂, ventral (functional gonopore arrowed).
Figure 6 in Taxonomic position of and generic distinction between Parepactophanes Kunz, 1935 and Taurocletodes Kunz, 1975 (Copepoda, Canthocamptidae incertae sedis), with description of a new species from the Black Sea
Figure 6. Taurocletodes tumenae sp. nov. A, P3 ♀, anterior. B, P3 ♂ (excluding praecoxa and coxa), anterior. C, P3 exopod ♂, outer lateral. D, P3 endopod ♂, medial. E, P4 ♀, anterior. F, P4 ♂, anterior. G, ♀ genital field.
Figure 2 in Taxonomic position of and generic distinction between Parepactophanes Kunz, 1935 and Taurocletodes Kunz, 1975 (Copepoda, Canthocamptidae incertae sedis), with description of a new species from the Black Sea
Figure 2. Taurocletodes tumenae sp. nov. Female. A, urosome, dorsal. B, urosome (excluding P5-bearing somite), ventral. C, fifth pair of legs, anterior. D, anal somite and left caudal ramus, lateral.
Figure 5 in Taxonomic position of and generic distinction between Parepactophanes Kunz, 1935 and Taurocletodes Kunz, 1975 (Copepoda, Canthocamptidae incertae sedis), with description of a new species from the Black Sea
Figure 5. Taurocletodes tumenae sp. nov. A, P1 ♀, anterior. B, P1 endopod ♀, posterior. C, P2 ♀, anterior. D, P2 ♂, anterior. E, left P5 ♀, anterior.
Fig. 3 in Careproctus io (Teleostei: Liparidae), a New Snailfish from the Western North Pacific, with Comments on Generic Limits
Fig. 3. Relationship of pectoral-fin ray to anal-fin ray numbers (A), and relationship of pelvic disk length (in % of SL) to dorsal-fin ray number (B). Solid stars indicate Careproctus io. Dashed line indicates previously recognized limit of Careproctus, with similar numbers of pectoral-fin and anal-fin rays.
Fig. 2 in Careproctus io (Teleostei: Liparidae), a New Snailfish from the Western North Pacific, with Comments on Generic Limits
Fig. 2. Holotype of Careproctus io, FAKU 148130, 37.3 mm SL. A, Micro-CT scan image of head; B, fresh condition.
Fig. 1 in Careproctus io (Teleostei: Liparidae), a New Snailfish from the Western North Pacific, with Comments on Generic Limits
Fig. 1. Schematic drawing of Careproctus io, holotype, FAKU 148130, 37.3 mm SL. A, Lateral and ventral views of head; B, teeth; C, pectoral girdle. Abbreviations: C, coracoid; DR, distal radials; F, interradial fenestra; MX, maxillary pores; N, nasal pores; PM, preoperculo-mandibular pores; PR, proximal radials; S, scapula; SP, suprabranchial pores. Scale bars: B, 0.25 mm; C, 1.0 mm.
FIG. 10. Strophocaulon unitum, Fawcett 641 in A Generic Classification of the Thelypteridaceae
FIG. 10. Strophocaulon unitum, Fawcett 641 (VT), A. pinna lobes, abaxial view. B. rhizome. C. laminar apex.
FIG. 9. Steiropteris deltoidea, Fawcett 464 in A Generic Classification of the Thelypteridaceae
FIG. 9. Steiropteris deltoidea, Fawcett 464 (VT) A. habit. B. pinna lobes, adaxial view.C. Mesophlebion sp., Karger 1796 (VT), pinna lobes, abaxial view.
FIG. 6. A. Plesioneuron hopeanum, Fawcett 613 in A Generic Classification of the Thelypteridaceae
FIG. 6. A. Plesioneuron hopeanum, Fawcett 613 (VT), pinna lobes, adaxial view. Amauropelta (subg. Nibaa) noveboracensis, Fawcett 567 (MICH, VT), B. pinna-lobes, adaxial view.C. habit. D. Thelypteris palustris, Fawcett 569 (VT), pinna lobes abaxial view.
FIG. 3 in A Generic Classification of the Thelypteridaceae
FIG. 3. Grypothrix cuspidata, Lu 12803 (VT), A. habit.B. pinna, abaxial view. C. G. simplex, Lu 9270 (VT), habit.
FIG. 2 in A Generic Classification of the Thelypteridaceae
FIG. 2. Morphology of the Thelypteridaceae. A. Coryphopteris kolombangarae, SITW07554 (TAIF), glandular indusia. B. Goniopteris yaucoensis, Proctor 43584 (US), stellate hairs along adaxial costa.C.Pneumatopteris glandulifera, SITW11069 (TAIF),peg-like aerophores at pinna bases.D. Sphaerostephanos polycarpos,SITW11070 (TAIF), marginally glandular indusia.E. Sphaerostephanos doodioides, SITW05702 (TAIF), setose indusia,spherical glands on indusia, sporangia,and laminar tissue. F. Goniopteris reptans, Wright 813 (US), sori with shriveled, setose indusia, some hairs furcate. G. Macrothelypteris polypodioides, SITW11122 (TAIF), stipe scales. H. Hoiokula pendens, Hobdy 2664 (UC), setulose sporangia. I. Plesioneuron imbricatum, SITW05370 (TAIF), exindusiate sori, sporangia with spherical glands. J. Christella dentata, SITW10525 (TAIF), shriveled, setulose indusia. K. Sphaerostephanos heterocarpos SITW11079 (TAIF), abruptly reduced proximal pinnae, adaxial surface with acicular hairs. L. Coryphopteris subbipinnata, SITW11667 (TAIF), appressed stipe base scales,these marginally setulose. All photos by Cheng-Wei Chen except B, F, and H by Susan Fawcett.
FIG. 4. A. Hoiokula sandwicensis, Aborn s.n in A Generic Classification of the Thelypteridaceae
FIG. 4. A. Hoiokula sandwicensis, Aborn s.n. (VT),pinna lobes, abaxial view.B. Hoiokula pendens, Hobdy 2664 (UC), pinna lobes, adaxial view.C. Leptogramma pilosa, Diaz 6621 (UC), abaxial pinna lobes. D. Stegnogramma aspidioides, Palmer 1035 (UC), abaxial pinna. E. Stegnogramma wilfordii, Boufford 20159 (VT), proximal portion of lamina, abaxial view.
Coryphopteris subbipinnata, Mount Chaunapaho, Guadalcanal, Solomon Islands. Photo by Cheng-Wei Chen. in A Generic Classification of the Thelypteridaceae
Coryphopteris subbipinnata, Mount Chaunapaho, Guadalcanal, Solomon Islands. Photo by Cheng-Wei Chen.
FIG. 1. A in A Generic Classification of the Thelypteridaceae
FIG. 1. A synoptical tree illustrating relationships among genera of Thelypteridaceae based on Fawcett et al. (in press).
Generic Constructions Datasets
<p>Add Basic Results from ProSenseAIR Algorithm (https://github.com/JanChristianRedlich/ProSenseAIR) on NOW Corpus inclusive Visualizations.</p>
The ZSW HyFaB Generic Stack
<h1>ZSW HyFaB Generic Stack:<strong> state-of-the-art</strong> and <strong>open</strong> PEM fuel cell stack platform</h1> <ul> <li>Initial design work performed within FVV (Forschungsvereinigung Verbrennungskraftmaschinen / Research Association for Internal Combustion Enginges) industry dialogue project "generic stack“ with consensus on high-level specifications</li> <li>Further development within the framework of the HyFaB project</li> <li>Active area relevant for mobile applications (280 cm²)</li> <li>Power density as for automotive application up to 150 kW</li> <li>Public set of drawings free of third party rights</li> <li>Flow simulations done and available on request</li> <li>EKPO as industrial partner for series production of the metallic bipolar plates - product can be ordered from ZSW</li> </ul> <p>The zip-files contain the respective CAD drawings and further contents in the widespread <em>STEP</em> (*<em>.stp), DXF (*.dxf) </em>and<em> PDF (*.pdf</em>) file formats.</p> <p>The HyFaB project leading to this stack design was funded by the state of Baden-Württemberg, Ministry for the Environment, Climate and Energy Industry under the funding reference L75 20112.</p>
Fig. 3 in Redescription of Atopocottus tribranchius (Cottidae) from Japan with comments on the generic diagnosis and distribution
Fig. 3. Dorsal (A) and lateral (B) views of cephalic sensory system and dorsal (C) and lateral (D) views of skull of Atopocottus tribranchius. BSKU 121005, 25.4 mm SL. CA, anterior coronal pore; CP, posterior coronal pore; F, frontal; IO, infraorbitals; IOP, posterior infraorbital pores; L, lacrimal; LLP, lateral-line pores; OCLA, lateral anterior central pore of occipital canal; OCLP, lateral posterior central pore of occipital canal; OCP, posterior medial pore of occipital canal; OLA, lateral anterior pore of occipital canal; OLP, lateral posterior pore of occipital canal; NA, anterior nasal pore; NP, posterior nasal pore; P, parietal; PM, preoperculo-mandibular pores; SO, supraorbital pore; T, postorbital pores. Shaded areas in C, D indicate cephalic pores.
Fig. 6 in Redescription of Atopocottus tribranchius (Cottidae) from Japan with comments on the generic diagnosis and distribution
Fig. 6. Cephalic sensory system of Stlengis osensis in dorsal view. BSKU 107932 (1 of 9 specimens), 39.4 mm SL. SO, supraorbital pore.
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.