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FIGURE 8 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 8. Microceratina pseudoamfibola (Barbeito-Gonzàlez, 1971), valve morphology: A–G—RV-1; H–K—LV-1; L–N— RV-2 (Calvi, Corsica, France); A–G—RV, external; A—general view; B—detail of A, posterior half of valve (light gray arrow indicates angular ventro-posterior ridge); C—detail of B, intrareticular solum with fossae and LStPC; D—detail of A, anterior half of valve; E, F—detail of fossae with LStPC (white arrows indicate aperture of tubuli with a loophole pore); G—detail of A (rotated 90º), intramural fossae within a reticular structure; H–K—LV; H—external, detail of the ventral side (white arrow points to anterior); I–K—internal; I–J—details of pores of LStPC; K—central area with adductor muscle scars (indicated by central white arrow) and apertures of two NPC (lateral white arrows); L–N—RV, internal; L—general view; M, N—detail of L, anterior (M) and posterior (N) hinge (black arrows indicate the positive terminal elements). (M. Peeters sample deposited at Royal Belgian Institute of Natural Sciences, Brussels (RBINS), Inv. Nr. 12703/0C2075).
FIGURE 6 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 6. Microceratina martensi Namiotko et al., 2004, valve and limb morphology (Holotype C 28908), details redrawn from Namiotko et al., 2004: A—RV internal (with fms); B—2nd antenna with ss; C—branchial plate (exopodite) of maxillula; D—maxillular endopodite; E–F—protopodites of 6th and 7th limbs (2nd and 3rd walking legs).
FIGURE 15 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 15.?Sagmatocythere rectum (Brady, 1868), valve morphology: A–J, N, P–T (inner continental shelf off Tavira, Eastern Algarve, Portugal); K–M, O, U–W (Mira lower estuary, Portugal); A–D and P–T—RV, SMF Xe 23996; A–D—RV external; A—general lateral view; B—detail of A, round cells and StPC (C-type pore); C—detail of A, StPC (C-type pore); D—detail of A, simple NPC (A'-type). E–J—LV external, SMF Xe 23997; E—general lateral view; F—detail of E, simple NPC (A"-type) and StPC (C-type pore); G—detail of E, round cells, simple NPC (A'-type) and StPC (C-type pore); H—detail of E, round cells, simple NPC (A' and A"-type) and StPC (C-type pore); I—detail of E, round postero-ventral protuberance; J—detail of E, simple NPC (A"-type). K–M—RV external, SMF Xe 23999; K—general lateral view; L—detail of K, adductor muscle scars; M—general dorsal view. N—LV general ventral view, SMF Xe 23998. O—LV, juvenile (A-1?), external lateral view, SMF Xe 24001. P–T—RV internal (as A–D); P—general view; Q—detail of P, StPC; R—detail of P, hinge, anterior; S—detail of P, hinge, posterior; T—detail of P, posterior zone with NPC. U–W—LV internal, SMF Xe 24000; U—general view; V—detail of U, posterior, hinge and NPC; W—detail of U, anterior, hinge and NPC.
FIGURE 2 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 2. Morphological details of Microceratina quadrata Swanson, 1980: A—LV, external, specimen from Port Pegasus, New Zealand (white arrow indicates the AMZ); B—RV, internal, detail of anterior section of hinge (A, B images courtesy K. Swanson); C–D—LV, from Port Kembla, Australia (from Yassini & Jones, 1995, figs 136, 137, with permission I. Yassini); C— LV, external, light gray arrow indicates the postero-ventral lateral expansion of the valve; D—external surface ornament detail.
FIGURE 10 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 10. Cytheruridae, valve morphology: A–C—Cytherura gibba (O.F. M̧ller, 1785); BMNH 1985.171; Seaton Delaval, Great Britain: A—LV male external; B—RV male, internal (white arrow indicates the concave shape of the CP); C—detail of A (rotated 90º), ornamentation, simple type NPC (A'-type) with sensillum and simple type NPC (A'-type) with bifurcate sensillum (black arrow). D–F—Eucytherura mistrettai Sissingh, 1972; outer continental shelf off Sagres, Western Algarve, Portugal; D— RV, external, SMF Xe 23987; E—RV juvenile, external, SMF Xe 23989; F—LV, internal, SMF Xe 23988 (white arrow indicates the concave shape of the CP). G—Eucytherura alata G.W. M̧ller, 1894; LV, external, SMF Xe 23984; middle continental shelf off Sagres, Western Algarve, Portugal. H—Semicytherura sulcata (G.W. M̧ller, 1894); C female, dorsal, SMF Xe 24003; inner continental shelf off Armona, Eastern Algarve, Portugal (light gray arrow indicates tubular opening of CP). I—Semicytherura aff. rarecostata Bonaduce, Ciampo & Masoli, 1976; RV female, internal, SMF Xe 24002; inner continental shelf off Tavira, Eastern Algarve, Portugal (white arrow indicates the concave shape of the CP).
FIGURE 12 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 12. Cytheropteron sulcatum Bonaduce, Ciampo & Masoli, 1976, valves and carapace with details of NPC: A–I (innermiddle continental shelf off Tavira, Eastern Algarve, Portugal); A—C, general dorsal view, SMF Xe 23980 (light gray arrow indicates tubular opening of CP); B–C—LV, external, SMF Xe 23981; B—general view; C—detail of B, NPC, simple type (A'-type) with sensillum; D–G—RV, external, SMF Xe 23983; D—general view; E—detail of D, different NPC: large simple type with ring and long sensillum (upper gray arrow) (A"-type), large simple type (A'-type) with short sensillum (gray arrow right) and small simple type (A'-type) with short sensillum (white arrow); F—detail of E, large simple NPC with ring and long sensillum (A"-type); G—detail of D, large simple NPC with short sensillum; H–I—LV, internal, SMF Xe 23982; H—general view; I—detail of H, NPC, large simple type (gray arrow) and small simple type (white arrow).
FIGURE 14 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 14. Microceratina andreui Cabral & Lord sp. nov.: A–F—C, holotype, SMF Xe 23990; L = 0.39 mm, H = 0.19 mm; Boca da Mata section, Portugal; Upper Toarcian, Speciosum Zone; sample BM52B; A—left view; B—detail of A, AMZ (white arrow) and ornamentation (antero-ventral ridges); C—detail of B, adductor muscle scars; D—detail of the AMZ from B; E—detail of A, posterior, round postero-ventral protuberance; F—detail of E, posterior extremity and reticulation; G–O—C, SMF Xe 23993; L = 0.41 mm, H = 0.20 mm; Boca da Mata section, Portugal; Lower Aalenian, Opalinum Zone; sample BM161; G—right view; H—detail of G, anterior, NPC (white arrow indicates pore conulus, A"-type); I—detail of H, pore conulus; J— detail of G, reticulate cells with sola covered by fossae and intramural NPC, A"-type (white arrow); K—detail of J, pentagonal cells with fossae and intramural NPC (white arrow); L—detail of G, several fossae on sola; M—detail of L, fossae; N—detail of G, fossae; O—detail of G, fossae; P—C, ventral view, paratype, SMF Xe 23992; L = 0.38 mm, H = 0.18 mm; Boca da Mata section, Portugal; Upper Toarcian, Speciosum Zone; sample BM57; Q—C, dorsal view, paratype, SMF Xe 23991; L = 0.39 mm, H = 0.19 mm; Boca da Mata section, Portugal; Upper Toarcian, Speciosum Zone; sample BM52B; R—C, right view, paratype, same as P; S—C, left view, SMF Xe 23994; L = 0.40 mm, H = 0.19 mm; Boca da Mata section, Portugal; Lower Aalenian, Opalinum Zone; sample BM169B; T–V—C, SMF Xe 23995; L = 0.40 mm, H = 0.19 mm; Boca da Mata section, Portugal; Lower Aalenian, Opalinum Zone; sample BM162T; T—right view (white arrow indicates the AMZ); U—detail of T; V—detail of U, intramural NPC, A"-type (pore conulus).
FIGURE 11 in Reconciling diagnostic traits in living and fossil taxa: The taxonomy and evolution of the genus Microceratina (Crustacea, Ostracoda, Cytheruridae)
FIGURE 11. Eucytherura species, valve morphology: A–F—Eucytherura complexa (Brady, 1867); outer continental shelf off Sagres, Western Algarve, Portugal; A–D—RV, external, SMF Xe 23985; A—general view; B—detail of A, NPC, simple type, A'-type (white arrow) and pore conuli, A"-type (black arrows); C—detail of A, NPC, simple type, A'-type, with sensillum; D—NPC, pore conuli, A2-type (black arrows); PCl-type (white arrow). E–F—RV, juvenile, internal, SMF Xe 23986; E— general view (white arrow indicates the AMZ); F—detail of E, hinge, anterior. G–I—Eucytherura mistrettai Sissingh, 1972. LV, internal, same as Fig. 10F; G—general view (white arrow indicates the AMZ); H—detail of G, dorso-central zone, NPC; I—detail of H, NPC.
FIGURE 2. Diagnostic features. A–G in A study on the genus Lagria from China with one new species and new distributional records (Coleoptera: Lagriinae)
FIGURE 2. Diagnostic features. A–G. Tibiae and aedeagus of Lagria (Lagria) medogensis sp. nov.. A. Male protibia; B. Male mesotibia; C. Male metatibia; D. Female mesotibia, arrows indicating tiny denticles; E. Female metatibia; F. Aedeagus, lateral view; G. Aedeagus, ventral view; H–I. Aedeagus of Lagria (Lagria) indicola. H. Lateral view; I. Ventral view.
FIGURE1. Diagnostic characters of Platynaspis spp.: a. head; b. antenna; c. labium; d. maxilla; e. abdomen; f, g. abdominal postcoxal line, variations; h. fore leg; i. hind leg; j. female genitalia; k, l. spermatheca. in A review of Platynaspini (Coleoptera: Coccinellidae) of the Indian subcontinent, including description of a new genus from north-eastern India and Bangladesh
FIGURE1. Diagnostic characters of Platynaspis spp.: a. head; b. antenna; c. labium; d. maxilla; e. abdomen; f, g. abdominal postcoxal line, variations; h. fore leg; i. hind leg; j. female genitalia; k, l. spermatheca.
A multifaceted isoneutral eddy transport diagnostic framework and its application in the Southern Ocean -- datasets
<p>We propose a multifaceted isoneutral eddy transport diagnostic framework and apply it in the Southern Ocean to analyze eddy potential vorticity (PV) transport dynamics. We leverage a thickness-weighted spatiotemporal scale separation to define a generalized form of eddy flux. A local sampling method is employed and validated to estimate the transport tensor. We introduce Leonard’s decomposition and stationary-transient decomposition to diagnose the role of multiscale interactions. The non-Reynolds term under Leonard’s decomposition and the stationary effect perform prominently in determining the transport property. The Reynolds and transient parts have distinctions, that show oceanic mesoscale dynamics are not synergistic in time and spatial scales. We investigate the spatial scale dependence of each part and find that the transient and stationary components of the Reynolds (non-Reynolds) term have consistent (dissimilar) scale dependence. The scale dependence of the total eddy flux and the transport eigenvalues is controlled by the non-Reynolds term. We further investigate the eigenvalues in terms of the potential enstrophy budget and anisotropy. The potential enstrophy in the Southern Ocean holistically has a forward cascade on the researched scales. The Reynolds and transient effects efficiently promote the forward enstrophy cascade. The non-Reynolds and stationary effects stimulate drastically anisotropic eddy transport. The PV gradient barrier mechanism dominates the drastic anisotropic case. When the anisotropy is weak, a special anisotropic case with a locally balanced potential enstrophy budget overwhelms the case of real isotropy. The results urge future diagnostic works to examine the generalized eddy flux form in a spatiotemporal sense.</p>
Impact of a multi-disease integrated screening and diagnostic model for COVID-19, TB, and HIV in Lesotho during almost two years of pandemic
<p>These are pseudo-randomized data from the MISTRAL study: "Impact of a multi-disease integrated screening and diagnostic model for COVID-19, TB, and HIV in Lesotho during almost two years of pandemic". The data dictionary explains the data. Between December 2020 and August 2022, 4371 individuals with either COVID symptoms or contact with a COVID-positive case were included from two hospitals in Lesotho. </p>
Supplementary data for "Engineering PD-1-targeted small protein variants for in vitro diagnostics and in vivo PET imaging"
<p>Supplementary data for "Engineering PD-1-targeted small protein variants for in vitro diagnostics and in vivo PET imaging". The docking.zip file contains ClusPro protein/protein docking results for all binding protein variants using either murine PD-1 structure (3bikB) or human PD-1 AF2 model as receptors. The pymol session contains data and scenes used to generate the Figures in the paper.</p>
Soil and atmospheric drought explain the biophysical conductance responses in diagnostic and prognostic evaporation models over two contrasting European forest sites
<p>This contains the datasets and codes that were used to generate the results and discussions in the manuscript.</p>
A4D standardized diagnostics software and technical reports
<p>This zenodo repo contains version 1.0 of the CCCma/A4D standard diagnostic package, which is a package that compares model simulations with observations. It is built on top of ESMValtool, using an in-house python routine. Code and documentation are in zenodo_A4D_software.tar.</p> <p>In addition, this repo contains reports of the CanESM5.0-p2, CanESM5.1-p1 and CanESM5.1-p2 climates and the comparison to observations, which were produced with version 1.0 of the CCCma/A4D standard diagnostic package (details see below). These reports will be updated with new diagnostics and future model versions, and made available at https://gitlab.com/cccma/canesm/-/wikis/home . </p> <p>The data used to generate the plots used in <a href="https://gmd.copernicus.org/preprints/gmd-2023-52/">Sigmond et al. (2023)</a> is not part of this repository. It is available from the ESGF as described in the ``Code and data availability'' of the paper.</p> <p><strong>REPORTS IN THIS REPO:</strong></p> <p><strong>Comparisons of the historical simulations with selected observations and analyses:</strong></p> <p>v1.0_CanESM5.0_p2_hist_vs_obs.pdf</p> <p>v1.0_CanESM5.1_p1_hist_vs_obs.pdf</p> <p>v1.0_CanESM5.1_p2_hist_vs_obs.pdf</p> <p><strong>Comparisons of preindustrial control simulations:</strong></p> <p>v1.0_CanESM5.1-p1_vs_CanESM5.0-p2_piControl.pdf</p> <p>v1.0_CanESM5.1-p2_vs_CanESM5.1-p1_piControl.pdf</p> <p><strong>Equilibrium Climate Sensitivity:</strong></p> <p>v1.0_CanESM5.0_p2_ECS.pdf</p> <p>v1.0_CanESM5.1_p1_ECS.pdf</p> <p>v1.0_CanESM5.1_p2_ECS.pdf</p>
A WT1-positive pleural neoplasm. Is it always a mesothelioma? Diagnostic pitfall of WT1 immunohistochemistry in pleural neoplasm
Open the record for dataset details and reuse information.
FIGURE 4. Ensiferella kanmiyai Nartshuk diagnostic features. A in New species and new records of Chloropinae from Singapore (Diptera: Chloropidae)
FIGURE 4. Ensiferella kanmiyai Nartshuk diagnostic features. A, habitus (modified from: https://singapore.biodiversity. online/species/A-Arth-Hexa-Diptera-002634). B, male terminalia, profile. C, male terminalia, ventral. Abbreviations: an sc, anal sclerite; ba, basiphallus; di, distiphallus; ep, epandrium; hy, hypandrium; me, mesolobus; ph, phallapodeme; pr, pregonite; po, postgonite; su, surstylus.
FIGURE 1 in A new and four known species of Diphtherophora (Nematoda: Diphtherophoridae) from Iran, with a diagnostic compendium of its species
FIGURE 1. Diphtherophora geraerti sp. n. Female (A, B, D, E) and male (C, F). A: Entire body; B: Anterior end; C: Pharyngeal region; D: Part of reproductive system; E, F: Posterior end.
FIGURE 9 in A new and four known species of Diphtherophora (Nematoda: Diphtherophoridae) from Iran, with a diagnostic compendium of its species
FIGURE 9. Male posterior ends of Diphtherophora species from Iran. A, B: D. caudata; C, D: Diphtherophora sp.; E, F: D. obesa; G, H: D. geraerti sp. n.; I–K: D. tenera. All scale-bars = 10 µm. (s = preanal supplements).
FIGURE 8 in A new and four known species of Diphtherophora (Nematoda: Diphtherophoridae) from Iran, with a diagnostic compendium of its species
FIGURE 8. Female tails of Diphtherophora species from Iran. A, B: D. caudata; C, D: Diphtherophora sp.; E, F: D. obesa; G, H: D. geraerti sp. n.; I–K: D. perplexans; L: D. tenera. All scale-bars = 10 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.