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.
806
datasets available to search
ShareScore release 0.9.0
Dataset results
806 results for “Neotype”
FIGURE 4 in Redescription, molecular features, and neotype deposition of Rhipicephalus pusillus Gil Collado and Ixodes ventalloi Gil Collado (Acari, Ixodidae)
FIGURE 4. Adults of I. ventalloi. A, male dorsal; B, male ventral. Bar length for A and B: 1.5 mm. C, male, spiracular plate. D, male, gnathosoma, dorsal view; E, male, gnathosoma, ventral view. Bar length for D and E: 0.25 mm. F, male, hypostome. G, male, coxae and trochanters I to IV. H, female dorsal; I, female ventral. Bar length for A and B: 1.5 mm. J, female, spiracular plate. K, female, gnathosoma, dorsal view; L, female, gnathosoma, ventral view. Bar length for K and L: 0.25 mm. M, female, hypostome. N, female, coxae and trochanters I to IV.
FIGURE 5 in Redescription, molecular features, and neotype deposition of Rhipicephalus pusillus Gil Collado and Ixodes ventalloi Gil Collado (Acari, Ixodidae)
FIGURE 5. Immatures of I. ventalloi. A, nymph dorsal; B, nymph ventral. Bar length for A, B: 0.6 mm. C, nymph, spiracular plate. D, nymph, gnathosoma, dorsal view; E, nymph, gnathosoma, ventral view. Bar length for C, D: 0.3 mm. F, nymph, hypostome. G, nymph, coxae and trochanters I to IV. H, larva dorsal; I, larva ventral. Bar length for G and H: 0.4 mm. J, larva, gnathosoma, dorsal view; K, larva, gnathosoma, ventral view. Bar length for I, J: 0.2 mm. L, larva, hypostome. M, larva, coxae and trochanters I to IV.
FIGURE 2 in Redescription, molecular features, and neotype deposition of Rhipicephalus pusillus Gil Collado and Ixodes ventalloi Gil Collado (Acari, Ixodidae)
FIGURE 2. Immatures of R. pusillus. A, nymph dorsal; B, nymph ventral. Bar length for A and B: 0.4 mm. C, nymph, spiracular plate. D, nymph, gnathosoma, dorsal view; E, nymph, gnathosoma, ventral view. F, nymph, hypostome. Bar length for D and E: 0.2 mm. G, nymph, coxae and trochanters I to IV. H, larva dorsal; I, larva ventral. Bar length for H and I: 0.2 mm. J, larva, gnathosoma, dorsal view; K, larva, gnathosoma, ventral view. Bar length for J and K: 0.1 mm. L, larva, hypostome. M, larva, coxae and trochanters I to IV.
FIGURE 1 in Redescription, molecular features, and neotype deposition of Rhipicephalus pusillus Gil Collado and Ixodes ventalloi Gil Collado (Acari, Ixodidae)
FIGURE 1. Adults of R. pusillus. A, male dorsal; B, male ventral. C, male, spiracular plate. D, male, gnathosoma, dorsal view. Bar length for figures A, B, H, and I: 1 mm. E, male, gnathosoma, ventral view. F, male, hypostome. Bar length for D and E: 0.4 mm. G, male, coxae and trochanters I to IV. H, female dorsal; I, female ventral. J, female, spiracular plate. K, female, gnathosoma, dorsal view; L, female, gnathosoma, ventral view. Bar length for K and L: 0.5 mm. M, female, hypostome. N, female, coxae and trochanters I to IV.
FIGURES 61–65. Ulata argentina Saylor, 1945 neotype. 61 in Taxonomic review of Athliini (Coleoptera: Scarabaeidae: Melolonthinae), a new tribe of scarab beetles endemic to South America
FIGURES 61–65. Ulata argentina Saylor, 1945 neotype. 61, dorsal habitus; 62, oblique habitus; 63, lateral male genitalia; 64, head and pronotum; 65, parameres.
FIGURES 10 & 11 in Designation of a neotype for the Australian robber fly Ommatius dimidiatus Macquart, a new senior synonym of Ommatius pilosus White and Ommatius levis White (Diptera: Asilidae: Ommatiinae)
FIGURES 10 & 11. Neotype of Ommatius dimidiatus Macquart. (10). Lateral view; (11). Dorsal view. Scale bar, 2 mm.
FIGURES 1–9 in Designation of a neotype for the Australian robber fly Ommatius dimidiatus Macquart, a new senior synonym of Ommatius pilosus White and Ommatius levis White (Diptera: Asilidae: Ommatiinae)
FIGURES 1–9. Ommatius spp. (1). Macquart's 1850 plate 8, fig. 11 of the ♂ wing of O. dimidiatus; (2). Hardy's 1928 illustration of the ♂ terminalia of O. dimidiatus. The illustration is of O. flavicaudus Malloch; (3). Hardy's (1928: 64) illustration of the ♂ terminalia of O. pilosus; (4–6). Specimen MNHN ED9078, a ♀ specimen of O. dimidiatus labelled syntype in MNHN; (4). Dorsolateral view; (5). Ventrolateral view; (6). Labels on specimen ED9078; (7–9). Specimen MNHN ED9077, a ♀ specimen of O. dimidiatus labelled syntype in MNHN; (7). Dorsal view; (8). Lateral view; (9). Macquart's handwritten label on specimen MNHN ED9077; despite bearing syntype labels, these specimens have no type status. Figures are not to scale.
FIGURE 6 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 6. nMDS analysis of the morphological variation of Mastigias medusae including data from all historically described species. A. Analysis including Mastigias from both lake (open colored symbols) and ocean (filled colored symbols) samples, and also from historical descriptions (black filled symbols). B. Analysis including only Mastigias from ocean habitats and from the historical descriptions. Circle emphasizes the close morphological match between new samples from the Philippines and historical descriptions of M. albipuntatus.
FIGURE 5 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 5. Adult Mastigias papua medusa (103 mm bell diameter) from the type locality: waigeo, west Papua (specifically from Mastigias Papua Cove). A. Profile view of M. papua, with details of the oral arm and margin of the bell. Two rhopalia are marked with arrows, delineating an octant. B. Details of the subumbrellar view of the terminals clubs, showing the typical 'tricorn' cross-section of lagoonal animals. C. Details of the contracted bell margin and oral arm. Note the patches of endosymbiontic zooxanthellae (here most easily visible as tan tiny dots in the unwinged part of oral arm). D. Subumbrellar view of canals dyed in the laboratory, note the perradial canal (p) and the interradial canal (i) which are both generally simple canals originating at the gastrovascular cavity and ending at the ring canal; the origins of the highly anastomosing adradial canals are marked with yellow circles where they join the gastrovascular cavity. E. Subumbrellar view of the bell margin, with velar lappets in between the two pairs of rhopalar lappets (r).
FIGURE 4 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 4. Mastigias papua from the type locality: waigeo, west Papua (specifically from Mastigias Papua Cove, November 2007) showing ontogenetic variation within species. A. Mature medusa, 150 mm bell diameter B. Juvenile medusa, 16 mm bell diameter. (i) unwinged portion of the oral arm, (ii) winged portion of oral arm, and (iii) terminal club.
FIGURE 3 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 3. nMDS analysis of morphological variation of 229 Mastigias samples collected in 5 regions in the western Pacific and China Sea. Lake samples are represented by unfilled symbols; ocean samples are represented by filled symbols. The type specimen is represented by a filled star.
FIGURE 2 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 2. Bayesian phylogenetic reconstruction using COI of Mastigias. Branches are labeled with symbols that represent the Bayesian posterior probability for the alignments 1, 2 and 3 respectively; * 0.95–1.00, ^ 0.90–0.95, + 0.80–0.90. Branches in black are present in all three alignments (i.e. 1—keeping missing data, 2—excluding sequences with missing data, 3— excluding sites with ambiguous base calls); branches in grey are present in alignment 1 only or alignments 1 and 2, or 1 and 3. Points in the map represent the locations of the three monophyletic clades, named primarily following Swift et al. (2016): the 'China Sea' clade with samples from Berau, Japan, Komodo and Philippines; the 'Solomon Sea' clade with samples from Tufi; and a 'Tropical western Pacific Islands' clade with samples from Palau, Papua, and Enewetak.
FIGURE 1 in Redescription of Mastigias papua (Scyphozoa, Rhizostomeae) with designation of a neotype and recognition of two additional species
FIGURE 1. Map of the Indo-west Pacific showing the samples considered in this study (see also Table 1). Symbols represent the samples available from each location for each category of analysis (see key, top right). Locations for the museum samples are approximate as specific locations for those samples were not available. Type locality is shown for Mastigias papua as described by Lesson (1830).
FIGURE 2. Adult male Entocythere cambaria neotype USNM 1462653 including A in Redescription and Clarification of Type Designation of Entocythere cambaria Marshall, 1903 (Ostracoda: Entocytheridae) and synonymization of Entocythere illinoisensis Hoff, 1942
FIGURE 2. Adult male Entocythere cambaria neotype USNM 1462653 including A) photograph showing entire specimen; B) illustration of carapace, including cracks as they appear in its current state; C) photograph of entire copulatory complex of E. cambaria neotype USNM 1462653 in situ, with notations for peniferum (p), clasping apparatus (ca), dorsal finger (df), and ventral finger (vf); D) illustration of one of the paired halves of the copulatory complex of E. cambaria neotype USNM 1462653; E) illustration of one of the paired halves of the copulatory complex of allotype adult male E. illinoisensis USNM 8190; F) illustration of the second paired half of the copulatory complex of allotype adult male E. illinoisensis USNM 8190, bearing a bifid dorsal finger; D.1, D.2) each of the two clasping apparatuses isolated, E. cambaria neotype USNM 1462653, and; E.1, E.2) each of the two clasping apparatuses isolated from E and F, respectively, allotype adult male E. illinoisensis USNM 8190. Scale bar (100 µm) shared by A and B. Scale bar (10 µm) shared by C, D, D.1, D.2, E, E.1, F, F.1.
FIGURES 7–12 in Nomenclatural notes on some taxa of Bidessus Sharp and designation of a neotype (Coleoptera: Dytiscidae: Hydroporinae: Bidessini)
FIGURES 7–12: (7–10): Habitus of: (7) Bidessus unistriatus (Goeze, 1777), neotype (male); (8) B. unistriatus, matt female from Rømø, Denmark; (9) B. minutissimus, male from Lerma, Italy; (10) Hydroglyphus geminus, male from Wallern, Austria; (11) median lobe of aedeagus in lateral view of neotype of B. unistriatus; (12) labels of neotype of B. unistriatus. Scale bar: 2.0 mm for habitus, 1.0 mm for aedeagus.
FIGURE 5 in Two new species of Psolus Oken from Brazil (Holothuroidea: Psolidae), with neotype designation and redescription of Psolus vitoriae Tommasi, 1971, and a key to the southwestern Atlantic and Magellanic species
FIGURE 5. (A–D) Psolus thandari sp. nov., holotype (MZUSP 593). (A) Dorsal view. Note the oral and anal valves and granules (white, black and grey arrows, respectively). (B) Detail of oral (left) and anal valves (right). (C) Detail of ambulacral feet in ventral view. Note the inner and outer rows of tube feet (black and white arrows, respectively). (D) Outline of the interradial plate (IR) and radial plate (R) of the calcareous ring. Note in D only the radial plate is notched. Scale bars: A, 3 mm; B, 0.5mm; C, 2 mm; D, 500 µm.
FIGURE 6 in Two new species of Psolus Oken from Brazil (Holothuroidea: Psolidae), with neotype designation and redescription of Psolus vitoriae Tommasi, 1971, and a key to the southwestern Atlantic and Magellanic species
FIGURE 6. (A–I) Psolus thandari sp. nov., holotype (MZUSP 593). SEM photomicrographs of the ossicles. (A) Scales from the dorsal region of the body (the arrow indicates the dorsal granules in top view). (B) Detail of the dorsal tubercle in lateral view (red arrow). (C) Plate from the dorsal region of the body. (D–E) Plates from the sole. (F) Smooth plate from the sole. (G– H) Knobbed rods from the tube feet. (I) End plate from tube feet. Scale bars: A, 250 µm, B, 100 µm, C–I, 50 µm.
FIGURE 3 in Two new species of Psolus Oken from Brazil (Holothuroidea: Psolidae), with neotype designation and redescription of Psolus vitoriae Tommasi, 1971, and a key to the southwestern Atlantic and Magellanic species
FIGURE 3. (A–F) Psolus tommasi sp. nov., holotype (MZUSP 583). (A) Dorsal view. Note the oral and anal valves (black and white arrows, respectively). (B) Anal and oral regions (above and below left, respectively), and detail of anal valves and oral teeth (black arrows), above and below right. (C) Detail of the lateral scales. (D) Detail of the ambulacral feet in ventral view. Note the inner and outer rows of tube feet (black and white arrows, respectively). (E) Interradial (IR) and radial (R) plates of the calcareous ring. (F) Outline of the interradial (IR) and radial (R) plates of the calcareous ring. Note in E, F that only the radial plate is notched. Scale bars: A, 6 mm; B, 1mm; C, 0. 3 mm; D, 1 mm; E–F 500 µm.
FIGURE 2 in Two new species of Psolus Oken from Brazil (Holothuroidea: Psolidae), with neotype designation and redescription of Psolus vitoriae Tommasi, 1971, and a key to the southwestern Atlantic and Magellanic species
FIGURE 2. (A–F) Psolus vitoriae Tommasi, 1971, neotype (MZUSP 1632). SEM photomicrographs of the ossicles. (A) Dorsal scales showing dorsal granules (white arrow). (B) Detail of the dorsal granules. (C) Curved, smooth, perforated plate from the dorsal region and sole: ventral (upper left) and dorsal view (upper right respectively). (D) Knobbed plate from the dorsal region and sole. (E) Rods from the ambulacral feet. (F) End plate from the ambulacral tube feet. Scale bars: A, 500 µm; B–F 50 µm.
FIGURE 1 in Two new species of Psolus Oken from Brazil (Holothuroidea: Psolidae), with neotype designation and redescription of Psolus vitoriae Tommasi, 1971, and a key to the southwestern Atlantic and Magellanic species
FIGURE 1. (A–F) Psolus vitoriae Tommasi, 1971, neotype (MZUSP 1632). (A) Dorsal view. Note the granules on the dorsal scales and oral and anal valves (red, white and grey arrows, respectively). (B) Oral and anal regions (above and below left, respectively) and detail of oral and anal valves (above and below right, respectively). (C) Detail of the lateral scales (white arrow). (D) Detail of the ambulacral feet and Polian vesicles in ventral view (red and white arrows, respectively). (E) Interradial (IR) and radial (R) plates of the of calcareous ring in dorsal view. (F) Outline of the interradial (IR) and radial (R) plates of the calcareous ring in dorsal view. Note in E, F the radial and interradial plates notched. Scale bars: A, 4 mm; B, 500 µm; C, 0,5 mm; D–F 500 µm.
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.