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1,840 results for “Representative”
Fig. 1 in Ryuguderes casarrubiosi sp. nov., a new deep-sea representative of the enigmatic genus Ryuguderes (Kinorhyncha: Cyclorhagida: Campyloderidae) from the Indian Ocean
Fig. 1. Map with location of the sampling region (marked with a black star) offshore north-western Madagascar margin at the Mozambique Channel with detail of the studied area (marked with a red square) (A), and detailed bathymetry of the area where the new species was found (red triangle). Map courtesy of Dr Julie Tourolle, created with Globe©, IFREMER. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)
Fig. 2 in Ryuguderes casarrubiosi sp. nov., a new deep-sea representative of the enigmatic genus Ryuguderes (Kinorhyncha: Cyclorhagida: Campyloderidae) from the Indian Ocean
Fig. 2. Line art drawing of Ryuguderes casarrubiosi sp. nov. based on type material. A: Dorsal female trunk overview; B: ventral female trunk overview; C: dorsal view of male segments 10–11; D: mouth cone external ring of outer oral styles. Abbreviations: dis, distal part (of outer oral style); dpl, dorsal placid; go, gonopore; lane, lateral accessory nephridiopore; las, lateral accessory spine; ldgco, laterodorsal glandular cell outlet; lds, laterodorsal spine; ldss, laterodorsal sensory spot; ltas, lateral terminal accessory spine; lts, lateral terminal spine; lvb, lateroventral blunt spine; lvgco, lateroventral glandular cell outlet; lvs, lateroventral spine; lvss, lateroventral sensory spot; mds, middorsal spine; mlss, midlateral sensory spot; mts, midterminal spine; mvpl, midventral placid; oos, outer oral style; po, pore; ppdss, paired paradorsal sensory spot; ppf, primary pectinate fringe; pro, proximal part (of outer oral style); S, segment (followed by number of corresponding segment); sdgco, subdorsal glandular cell outlet; sdss, subdorsal sensory spot; spf, secondary pectinate fringe; ts, trichoscalid; tsp, trichoscalid plate; updss, unpaired paradorsal sensory spot; vlgco, ventrolateral glandular cell outlet; vmgco, ventromedial glandular cell outlet; vmpa, ventromedial papilla; vmss, ventromedial sensory spot.
Fig. 3 in Ryuguderes casarrubiosi sp. nov., a new deep-sea representative of the enigmatic genus Ryuguderes (Kinorhyncha: Cyclorhagida: Campyloderidae) from the Indian Ocean
Fig. 3. Light micrographs of female adult holotype NHMD-1174547 (A), female adult paratype NHMD- 672705 (E–G), male adult paratype NHMD-672702 (B, D), male pre-adult specimen NHMD-672704 (H), and J-2 juvenile specimen NHMD-67203 (C, I) of Ryuguderes casarrubiosi sp. nov., showing trunk cuticular overviews and details on head, neck and posterior trunk segments. A: Ventral trunk overview; B: Dorsal trunk overview; C: Ventral trunk overview; D: Outer oral styles; E: detail of the scalid internal septa (indicated with arrows); F: detail of a regularsized introvert scalid; G: Ventral neck view (arrows indicate the placid width at base); H: Dorsal view of segments 10–11; I: Ventral view of segments 8–10. Abbreviations: bs, basal sheath of scalid; dis, distal part (of outer oral styles); ep, end-piece of scalid; lds, laterodorsal spine; ltas, lateral terminal accessory spine; lts, lateral terminal spine; lvs, lateroventral spine; mds, middorsal spine; mts, midterminal spine; mvpl, midventral placid; pro, proximal part (of outer oral styles); numbers after abbreviation indicate corresponding segment.
Fig. 4 in Ryuguderes casarrubiosi sp. nov., a new deep-sea representative of the enigmatic genus Ryuguderes (Kinorhyncha: Cyclorhagida: Campyloderidae) from the Indian Ocean
Fig. 4. Light micrographs of female adult holotype NHMD-1174547 (A, C–D, F–I) and female adult paratype NHMD-672705 (B, E) of Ryuguderes casarrubiosi sp. nov., showing trunk cuticular details of segments 1–7. A, B: Middorsal to laterodorsal view of segments 1–3 tergal plates; C: detail of the unpaired, paradorsal sensory spot of segment 4; D: detail of the paired paradorsal sensory spots of segment 6; E: ventral view of segments 1–3; F: middorsal to midlateral view of segments 4–5 tergal plates; G: lateroventral view of segments 5–6; H: midlateral to midventral view of segments 6–7 cuticular plates; I: right sternal plate of segment 6. Abbreviations: las, lateral accessory spine; lvb, lateroventral blunt spine; lvs, lateroventral spine; mds, middorsal spine; ppf, primary pectinate fringe; sp, sternal plate; spf, secondary pectinate fringe; tp, tergal plate; vmpa, ventromedial papilla; numbers after abbreviation indicate corresponding segment; glandular cell outlets are marked as continuous circles, and sensory spots as dashed circles.
Fig. 7 in First account on Loricifera from New Zealand: A new species of Pliciloricus, and a Shira larva with postlarva representing the new genus and species Patuloricus tangaroa gen. et sp. nov
Fig. 7. Diagram of introvert in Shira larva of Patuloricus tangaroa gen. et sp. nov., showing distribution of scalids.
Fig. 3 in First account on Loricifera from New Zealand: A new species of Pliciloricus, and a Shira larva with postlarva representing the new genus and species Patuloricus tangaroa gen. et sp. nov
Fig. 3. Diagram of introvert in Pliciloricus apteryx sp. nov., showing distribution of scalids and basal plates.
Fig. 2 in First account on Loricifera from New Zealand: A new species of Pliciloricus, and a Shira larva with postlarva representing the new genus and species Patuloricus tangaroa gen. et sp. nov
Fig. 2. Line art illustrations of Pliciloricus apteryx sp. nov. (A) Male, dorsal view. (B) Male, ventral view. (C) Higgins larva, ventral view. Abbreviations: als, anterolateral seta; an, anus; avs, anteroventral seta; bp2, basal plate row 2; go, gonopore; mc, mouth cone; mt, mouth tube; mvp, midventral plica; pds, posterodorsal seta; pls, posterolateral seta; ro, rosette; sc, scalid followed by row number (subscript explainers: bs, beak-shaped scalid; cl, clavoscalid; cs, claw-shaped scalid; do, double organ; ls, leg-shaped scalid; mod cl, modified clavoscalid; sp, spinoscalid); te, testis; tn, tongue; to, toe; tr, trichoscalid (subscript explainers: do, double; si, single); ts, terminal setae. For visibility, some scalids in (A) and (B) have been omitted and their attachment sites are indicated by circles with dashed lines. In Row 4 that contains dimorphic scalids, dashed circles mark scalids whereas full circles indicate claw-shaped scalids.
Fig. 5 in First account on Loricifera from New Zealand: A new species of Pliciloricus, and a Shira larva with postlarva representing the new genus and species Patuloricus tangaroa gen. et sp. nov
Fig. 5. Confocal scanning laser micrographs showing overviews and details of adult male and Higgins larva of Pliciloricus apteryx sp. nov. (A–E) Holotypic male, NIWA-159431; (F) Paratypic Higgins larva, NHMD-916683. (A) 3D reconstruction showing dorsal overview. (B) Z-stack projection of mouth cone and tube, dorsal view. (C) Z-stack projection of lorica and abdominal myoanatomy, dorsal view. (D) Z-stack projection of lorica and abdominal myoanatomy, ventral view. (E) 3D reconstruction showing dorso-caudal overview. (F) 3D reconstruction showing dorsal overview of Higgins larva. Abbreviations: als, anterolateral seta; cm, circular muscles; lm, longitudinal muscles; mc, mouth cone; pds, posterodorsal seta; pls, posterolateral seta; ro, rosette; sc, scalid followed by row number (subscript explainers: cl, clavoscalid; do, double organ; mod cl, modified clavoscalid); tn, tongue; to, toe; ts, terminal setae.
Fig. 1 in First account on Loricifera from New Zealand: A new species of Pliciloricus, and a Shira larva with postlarva representing the new genus and species Patuloricus tangaroa gen. et sp. nov
Fig. 1. Map showing the transects (T1-3) and sampling localities in Bay of Plenty (marked in inset), New Zealand. Station numbers refer to Rosli et al. (2016). See Table 1 for further details on the localities.
SCM files for "Representing Effects of Surface Heterogeneity in a Multi-Plume Eddy Diffusivity Mass Flux Boundary Layer Parameterization"
<p>Supporting files for manuscript "Representing Effects of Surface Heterogeneity in a Multi-Plume Eddy Diffusivity Mass Flux Boundary Layer Parameterization" by N.P. Arnold.</p> <p>The data consists of source code modifications relative to v11.2.0 of the GEOS GCM, modified boundary conditions for running single column model experiments, and netcdf model output from those experiments.</p>
Aquamanile representing Aristotle and Phyllis
Aquamanile representing Aristotle and Phyllis, Mosane region, 15th century, cast and engraved brass. and next to it, a small cup to pile up, Antwerp, about 1500, inscription: "Scinct en drinct en god si gedinct" ("pour and wood and give thanks to God"), tin. Musée du Cinquantenaire (Brussels, Belgium). Made with ReMake and ReCap Pro from AutoDesk. For more updates, please consider to follow me on Twitter at @GeoffreyMarchal. Source: Objaverse 1.0 / Sketchfab
Hieroglyph representing the falcon Horus
Hieroglyph representing the falcon Horus, Deir el-Bahari. temple of Queen Hatshepsut, 18th dynasty, circa 1480 BC. BC, limestone. Musée d'Art et d'Histoire (Musée du Cinquantenaire, Brussels, Belgium). Made of 150 pictures with Zephyr3D Lite from 3D. This is a fragment of a door post reworked in the shape of a stele by a modern sculptor. For more updates, please consider to follow me on Twitter at @GeoffreyMarchal. (https://twitter.com/GeoffreyMarchal) Source: Objaverse 1.0 / Sketchfab
Dataset from: Distinct patterns of genetic variation at low-recombining genomic regions represent haplotype structure
<p>Genetic variation of the entire genome represents population structure, yet individual loci can show distinct patterns. Such deviations identified through genome scans have often been attributed to effects of selection instead of randomness. This interpretation assumes that long enough genomic intervals average out randomness in underlying genealogies, which represent local genetic ancestries. However, an alternative explanation to distinct patterns has not been fully addressed: too few genealogies to average out the effect of randomness. Specifically, distinct patterns of genetic variation may be due to reduced local recombination rate, which<br>reduces the number of genealogies in a genomic window. Here, we associate distinct patterns of local genetic variation with reduced recombination rates in a songbird, the Eurasian blackcap (<em>Sylvia atricapilla</em>), using genome sequences and recombination maps. We find that distinct patterns of local genetic variation reflect haplotype structure at low-recombining regions either shared in most populations or found only in a few populations. At the former species-wide low-recombining regions, genetic variation depicts conspicuous haplotypes segregating in multiple populations. At the latter population-specific low-recombining regions, genetic variation represents variance among cryptic haplotypes within the low-recombining populations. With simulations, we confirm that these distinct patterns of haplotype structure evolve due<br>to reduced recombination rate, on which the effects of selection can be overlaid. Our results highlight that distinct patterns of genetic variation can emerge through evolution of reduced local recombination rate. Recombination landscape as an evolvable trait therefore plays an important role determining the heterogeneous distribution of genetic variation along the genome.</p>
PLATE 7. Miscellaneous Windfall taxa. Each white scale bar represents 2 in Taxonomy and stratigraphic distribution of Lotagnostus (Agnostida: Agnostidae) and associated trilobites and conodonts in the Upper Cambrian (Furongian) of Laurentia
PLATE 7. Miscellaneous Windfall taxa. Each white scale bar represents 2mm. 1-3. Lotagnostus cf. L. obscurus. USMN 775722, cephalon, from D3362-CO, dorsal, anterior, and left lateral views. 4-6. Rhaptagnostus cf. R. convergens. Cephalon, CM 41350, from 5/22/08B, dorsal, anterior, and right lateral views. 7-9. Lotagnostus cf. L. obscurus. Cephalon, CM 41351, from 5/22/08B, dorsal, anterior, and right lateral views. 10-12. Homagnostus?. Pygidium, CM 41356, from 5/22/08B, dorsal, posterior, and left lateral views. 13-15. Lotagnostus cf. L. obscurus. Pygidium, CM 41353, from 5/22/08B, dorsal, posterior, and left lateral views. 16. Homagnostus? sp. Pygidium, CM 41401, from 5/22/08B, dorsal view. 17-18. Micragnostus cf. M. intermedius. Cephalon, CM 41358, from 5/22/08B, left lateral and dorsal views. 19. Hedinaspis sp. Fragmentary thoracic and/or pygidial fragment, CM 41359, from 5/22/08C, dorsal view. 20. Machairagnostus cf. M. corrugatus. Pygidium, CM 41349, from 5/22/08B, dorsal view. 21-22. Homagnostus? sp. Cephalon, CM 41357, from 5/22/08B, dorsal and anterior views.
Figure S1: Nutrient concentration of lettuce (Lactuca sativa 'Rex') plants grown at different total incident light levels in deep water culture hydroponics. Lines show multiple regression analysis results, indicating no significant interactions. Each data point represents one plant. N = nitrogen, P = phosphorus, K = potassium, Ca = calcium, Mg = magnesium, S = sulfur, B = boron, Cu = copper, Fe = iron, Mn = manganese, and Zn = zinc.
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Data in support to the paper: Comparison of Soil Water Content from SCATSAR-SWI and Cosmic Ray Neutron Sensing at four agricultural sites in Northern Italy: insights from spatial variability and representativeness by Emamalizadeh et al. (2024)
<p>The study was conducted within the 21GRD08 SoMMet project. The SoMMet project has received funding from the European Partnership on Metrology, co-financed from the European Union’s Horizon Europe Research and Innovation Programme and by the Participating States (funder name European Partnership on Metrology; funder ID 10.13039/100019599; grant no. 21GRD08 SoMMet).</p>
Disease trajectories in hospitalized COVID-19 patients are predicted by clinical and peripheral blood signatures representing distinct lung pathologies
<p><span>COVID-19 is characterized by a broad range of symptoms and disease trajectories. Understanding the correlation between clinical biomarkers and lung pathology over the course of acute COVID-19 is necessary to understand its diverse pathogenesis and inform more precise and effective treatments. Here, we present an integrated analysis of longitudinal clinical parameters, peripheral blood biomarkers, and lung pathology in COVID-19 patients from the Brazilian Amazon. We identified core clinical and peripheral blood signatures differentiating disease progression between recovered patients from severe disease and fatal cases. Signatures were heterogenous among fatal cases yet clustered into two patient groups: “early death” (< 15 days of disease until death) and “late death” (> 15 days). Progression to early death was characterized systemically and in lung histopathology by rapid, intense endothelial and myeloid activation/chemoattraction and presence of thrombi, associated with SARS-CoV-2<sup>+</sup> macrophages. In contrast, progression to late death was associated with fibrosis, apoptosis and abundant SARS-CoV-2<sup>+</sup> epithelial cells in post-mortem lung, with cytotoxicity, interferon and Th17 signatures only detectable in the peripheral blood 2 weeks into hospitalization. Progression to recovery was associated with higher lymphocyte counts, Th2 and anti-inflammatory-mediated responses. By integrating ante-mortem longitudinal systemic and spatial single-cell lung signatures, we defined an enhanced set of prognostic clinical parameters predicting disease outcome for guiding more precise and optimal treatments.</span><span> Finally, this study represents a major advance in the investigation of acute respiratory infections by integrating serial clinical data and peripheral blood samples with histopathological and </span><span>spatially-resolved single-cell </span><span>analyses of post-mortem lung samples.</span></p>
Representative data accompanying the manuscript: Four-dimensional quantitative analysis of cell plate development in Arabidopsis using lattice light sheet microscopy identifies robust transition points between growth phases
<p>Representative data accompanying the manuscript: Sinclair R, Wang M, Jawaid MZ, Longkumer T, Aaron J, Rossetti B, Wait E, McDonald K, Cox D, Heddleston J, Wilkop T, Drakakaki G. (2024). <em>Four-dimensional quantitative analysis of cell plate development in Arabidopsis using lattice light sheet microscopy identifies robust transition points between growth phases.</em> J Exp Bot. 2024 Mar 4: erae091. doi: 10.1093/jxb/erae091.</p> <p>The data show YFP–RABA2a dynamics in dividing cells of Arabidopsis root tips using lattice light sheet microscopy. Treatments with or without Endosidin 7, a cytokinesis-specific callose deposition inhibitor, are shown.</p> <p>Data: </p> <p>22.3 YFP-RABA2A. </p> <p>23.9 YFP-RABA2A ES7 </p>
Karyotype diversification and evolution in Silene (Caryophyllaceae) representatives with sex chromosomes: taxonomic and biogeographical implications
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Supporting Dataset for the study "A simple Approach to Represent Irrigation Water Withdrawals in Earth System Models"
<p><span><span>This archive contains the following information (8 directories):</span></span></p> <ol> <li> <p><span><span>surfex_v8.0climat : ISBA-CTRIP source code from CNRM-ESM-2 used in the study</span></span></p> </li> <li> <p><span><span>model_data : parameters used by the model and to plot the figures</span></span></p> </li> <li> <p><span><span>fig : ncl scripts to plot the figures & figures in eps</span></span></p> </li> <li> <p><span><span>discharges : simulated and observed river discharges data</span></span></p> </li> <li> <p><span><span>fluxes : simulated water fluxes plotted on the figures</span></span></p> </li> <li> <p><span><span>tws : estimated and simulated terrestrial water storage data</span></span></p> </li> <li> <p><span><span>withdrawals : imposed (impirrig) and simulated (irrig) irrigation water withdrawals</span></span></p> </li> <li> <p><span><span>wtd : simulated and estimated groundwater levels and trends</span></span></p> </li> </ol>
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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.