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 19 in <p><strong>Systematic review of diplommatinid land snails (Caenogastropoda, Diplommatinidae) endemic to the Palau Islands. (1) Generic classification and revision of <em>Hungerfordia</em> </strong><br /><strong>species with highly developed axial ribs</strong></p>
FIGURE 19. Hungerfordia goniobasis goniobasis sp. et subsp. nov. (A1–A5) A topotypic paratype, B0235a; (B) aperture, (C) columella (dorsal view), (D) axial ribs above the aperture (umbilical view), and (E) sculpture on the penultimate whorl of a topotypic paratype (B0235a); (F1–F5) holotype, B0235T; (G) a topotypic paratype, B0235b; (H1, H2) a paratype with short spiny ribs from Loc. Mc6-1, B0763; (I1, I2) outer surface, and (I3, I4) inner surface of operculum, a topotypic paratype, B0235. Scale bars, 1mm (A, D–H), 0.5 mm (B, C, I). All specimens, UMUTZ-MG.
FIGURE 17 in <p><strong>Systematic review of diplommatinid land snails (Caenogastropoda, Diplommatinidae) endemic to the Palau Islands. (1) Generic classification and revision of <em>Hungerfordia</em> </strong><br /><strong>species with highly developed axial ribs</strong></p>
FIGURE 17. Hungerfordia echinata tubulispina subsp. nov. (A1–A4) A topotypic paratype, B0169a; (B) columella (dorsal view), (C) axial ribs above the aperture (after removal of parietal margin of the outer peristome), (D1) sculpture on the last 1.25–1.5 whorls, and (D2) sculpture on the 1.5–1.25 whorls of topotypic paratypes (B0169a, b); (E1–E4) holotype, B0169T; (F) umbilical view of last whorl, and (G) front view of entire shell of a topotypic paratype after removal of the spiny ribs (B0169c); (H, I) topotypic paratypes, B0169d, e; (J1, J2) outer surface, and (J3, J4) inner surface of operculum, a topotypic paratype, B0169. Scale bars, 1mm (A–K), 0.5 mm (J). All specimens, UMUTZ-MG.
FIGURE 16 in <p><strong>Systematic review of diplommatinid land snails (Caenogastropoda, Diplommatinidae) endemic to the Palau Islands. (1) Generic classification and revision of <em>Hungerfordia</em> </strong><br /><strong>species with highly developed axial ribs</strong></p>
FIGURE 16. Hungerfordia echinata echinata sp. et subsp. nov. (A1–A4) A paratype from Loc. BA5-1, B0437a; (B) columellar tooth (left lateral view), and (C) axial ribs above the aperture of paratypes from Loc. BA5-1 (B0437a, b); (D1) sculpture on the last 2–1.5 whorls, and (D2) sculpture on the last 1–1.5 whorls of a paratype from Loc. BA5-1, B0437a; (E1–E4) holotype, B1441T; (F) umbilical view of a paratype after removal of the spiny ribs, only the last whorl shown, Loc. BA7-1, B1084b; (G) a paratype from Loc. BA6-1, B0662; (H) a paratype with broken spines from Loc. BA5-1, B0437c; (I) a paratype from Loc. BA8-2, B1300; (J) apical septum, a partially opened paratype from Loc. BA5-1, B0437b; (K1, K2) outer surface, and (K3, K4) inner surface of operculum, a paratype from Loc. BA5-1, B0437. Scale bars, 1mm (A–J), 0.5 mm (K). All specimens, UMUTZ-MG.
FIGURE 15 in <p><strong>Systematic review of diplommatinid land snails (Caenogastropoda, Diplommatinidae) endemic to the Palau Islands. (1) Generic classification and revision of <em>Hungerfordia</em> </strong><br /><strong>species with highly developed axial ribs</strong></p>
FIGURE 15. Hungerfordia nudicollum sp. nov. (A1–A4) A paratype from Loc. Gk4-2, B0364a; (B) columellar tooth (dorsal view), a paratype from Loc. Gk4-2, B0364b; (C) axial ribs above the aperture, a subadult of topotypic paratype, B0146a; (D1) sculpture on the last 1–1.5 whorls, and (D2) sculpture on the last 1.5–2 whorls of a paratype from Loc. Gk4-2 (B0364a); (E) sculpture behind the aperture, a topotypic paratype, B0364c; (F) a paratype from Loc. Gk7-2, B0912; (G1–G4) holotype, B0364T; (H) a topotypic paratype, B0146b; (I) a paratype after removal of the spiny ribs, Loc. Gk4-2, B0364d; (J1, J2) outer surface, and (J3, J4) inner surface of operculum, a topotypic paratype, B0364. Scale bars, 1mm (A–I), 0.5 mm (J). All specimens, UMUTZ-MG.
FIGURE 6 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 6. Thoracic ribs of Actinemys marmorata (Museum of Zoology Dresden, MTD 24914), Emydoidea blandingii (MTD 8480), and Emys orbicularis (MTD 44202). Note enlarged, strongly bent thoracic ribs in Emydoidea serving for anchorage of neck muscles. Drawings: C. Schmidt.
FIGURE 3. Phylogenetic hypotheses for emydine turtles 1 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 3. Phylogenetic hypotheses for emydine turtles 1 (outgroups removed for clarity). Nomenclature follows the respective references. Top left: Phylogeny based on morphological evidence (Gaffney & Meylan 1988). Synapomorphies: (1) plastral hinge and suprascapula present; (2) episcapula present. Top right: Phylogeny based on mitochondrial 16S rRNA sequences (redrawn from Bickham et al. 1996). Bottom left: Phylogeny based on mitochondrial 16S rRNA sequences plus morphological, ethological and life history evidence (redrawn from Burke et al. 1996). Bottom right: Phylogeny based on the mitochondrial cyt b and ND4 genes and adjacent DNA coding for tRNAs (modified from Feldman & Parham 2002; weakly resolved relationships of 'Emys' blandingii, 'E.' marmorata, and E. orbicularis shown as polytomy).
FIGURE 8. Phylogenetic hypotheses for emydine turtles 2 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 8. Phylogenetic hypotheses for emydine turtles 2 (outgroups removed for clarity). Nomenclature follows the respective references except for Emys orbicularis in the two upper trees. Here, the subspecies names and mitochondrial lineages according to Lenk et al. (1999), Fritz et al. (2005, 2007, 2009) and Pedall et al. (2011) are given. Branch lengths in the upper trees are Maximum Likelihood divergence estimates; bottom, Bayesian divergence estimates. Top left: Phylogeny based on the mitochondrial cyt b gene (redrawn from Spinks & Shaffer 2009). Top right: Phylogeny based on three nuclear loci (non-coding introns: HNF-1α, RELN, R35; redrawn from Spinks & Shaffer 2009). Note the short basal branch lengths of more inclusive clades. Bottom left: Phylogeny based on the mitochondrial cyt b and ND4 genes (redrawn from Wiens et al. 2010; the sister group relationship of Glyptemys and the Deirochelyinae is very weakly supported). Bottom right: Phylogeny based on six nuclear loci (coding: NGFB; introns: ETS, GAPD, ODC, R35, Vim). Redrawn from Wiens et al. (2010).
FIGURE 2 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 2. Anterior views of (a) the right scapula of emydine turtle with ancestral character state as occurring in Actinemys, Clemmys, and Glyptemys species, (b) bipartite scapula of Emys, (c) tripartite scapula of Emydoidea, and (d) tripartite scapula of Terrapene. Abbreviations: esc: episcapula, ssc: suprascapula, sc: scapula, gl: glenoid, acr: acromion. Redrawn from Bramble (1974); reproduction from Fritz (2003) with permission of Laurenti Verlag.
FIGURE 1 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 1. Longitudinal sections of a Terrapene shell (left) and cross sections of right scapulo-carapacial articulation of Terrapene (right) to demonstrate relationships between scapula and carapace when shell is open (a), corresponding to a 'locked' scapulo-carapacial articulation (1), and when shell is closed (b), corresponding to a disengaged scapulo-carapacial articulation (3). The medial figure right (2) shows the disengaging of the scapulo-carapacial articulation during shell closure. Abbreviations: esc: episcapula, ssc: suprascapula, sc: scapula, rs: recessus scapularis, Mts: Musculus testoscapularis, lig: ligament, dr: dorsal rib, dv: dorsal vertebra. Redrawn and modified from Bramble (1974); reproduction from Fritz (2003) with permission of Laurenti Verlag.
FIGURE 5 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 5. Neck vertebrae of Actinemys marmorata (Museum of Zoology Dresden, MTD 24915), Emydoidea blandingii (MTD 44419), and Emys orbicularis (MTD 44202). Note elongated vertebrae in Emydoidea. Drawings: C. Schmidt.
FIGURE 7 in Competing generic concepts for Blanding's, Pacific and European pond turtles (Emydoidea, Actinemys and Emys)-Which is best?
FIGURE 7. Visceral (dorsal) view of plastra top from left to right: Actinemys marmorata (Michigan State University Museum, MSU 14447), Emydoidea blandingii (Museum of Zoology Dresden, MTD 8480), and bottom from left to right: Emys orbicularis (MTD 12363), Terrapene carolina (MTD 8481). Grey bridge region in Actinemys indicates solid bone; in the other taxa, the bridge region of adult turtles is a ligamentous connection between carapace and plastron. Arrows in Emydoidea, Emys and Terrapene indicate plastral hinges. Note different shapes of entoplastra. Modified and reproduced from Holman & Fritz (2001).
FIGURE 3 in A reevaluation of the generic limits of Pnigalio Schrank (Hymenoptera: Eulophidae) based on molecular and morphological evidence
FIGURE 3. Best scoring maximum likelihood tree based on a concatenated dataset of 28S-D2, ITS2 and COI sequences. Bootstrap values are indicated in bold below nodes. The species identity for each taxon code is given in Table 1.
FIGURE 2 in A reevaluation of the generic limits of Pnigalio Schrank (Hymenoptera: Eulophidae) based on molecular and morphological evidence
FIGURE 2. Majority rule consensus Bayesian tree based on a concatenated dataset of 28S-D2, ITS2 and COI sequences. Posterior probability values are indicated in bold below nodes. The species identity for each taxon code is given in Table 1.
FIGURE 1 in A reevaluation of the generic limits of Pnigalio Schrank (Hymenoptera: Eulophidae) based on molecular and morphological evidence
FIGURE 1. Mesosoma of Ratzeburgiola cristata (A), R. incompleta (B), Pnigalio vidanoi (C) females: ax, axillae; no, notauli; pr, propodeum; ms, metascutellum; sc, scutellum; sg, scutellar grooves.
Figure 4 in Morphological phylogeny and review of the generic classification of Colletinae (Hymenoptera: Colletidae)
Figure 4. Diagnostic features of Colletinae. Numbers shown in red indicate derived character states. A, B, Lateral view of male propodeum, Trichocolletes dowerinensis (A) and Colletes gilvus (B); C–E, posterior view of male metapostnotum, Xanthocotelles atacama (C), Hemicotelles magallanes (D) and C. atripes (E); F, ventral view of male S7 of Mourecotelles sp.1. Scale bars = 1 mm.
Figure 3 in Morphological phylogeny and review of the generic classification of Colletinae (Hymenoptera: Colletidae)
Figure 3. Diagnostic features of Colletinae. Numbers shown in red indicate derived character states. A–D, lateral view of male forewing, Hexantheda entrerriana (A), Hemicotelles ruizii (B), C. albomaculatus (C) and C. rufipes (D); E, F, dorsal view of female metasomal apex, C. gilvus (E) and Bicolletes rufiventris (F). Scale bars = 1 mm.
Figure 2 in Morphological phylogeny and review of the generic classification of Colletinae (Hymenoptera: Colletidae)
Figure 2. Diagnostic features of Colletinae. Numbers shown in red indicate derived character states. A,B, Frontal view of female head showing glossa, Xanthocotelles atacama (A) and Mydrosoma bohartorum (B); C,D, lateral view of female hind tibia, Colletes gilvus (C) and Bicolletes rufiventris (D). Scale bars = 1 mm.
FIGURES 31–34 in Generic review of Polycentropodidae with description of 32 new species and 19 new species records from the Oriental, Australian and Afrotropical Biogeographical Regions 2435
FIGURES 31–34. Polyplectropus dinhdan, new species, holotype. 31—genitalia, left lateral; 32—genitalia, caudal; 33—left gonopod, ventral; 34—phallic apparatus, left lateral.
FIGURES 28–30 in Generic review of Polycentropodidae with description of 32 new species and 19 new species records from the Oriental, Australian and Afrotropical Biogeographical Regions 2435
FIGURES 28–30. Polyplectropus daimong, new species, holotype. 28—genitalia, left lateral; 29—left gonopod, ventral; 30—phallic apparatus, left lateral.
FIGURES 35–37 in Generic review of Polycentropodidae with description of 32 new species and 19 new species records from the Oriental, Australian and Afrotropical Biogeographical Regions 2435
FIGURES 35–37. Polyplectropus giandi, new species, holotype. 35—genitalia, left lateral; 36—left gonopod, ventral; 37—phallic apparatus, left lateral.
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.