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1,026 results for “Linked data”
FIGURE 11. Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 11. Austroniscus brandtae n. sp., holotype male (SMF 57927, R4B). Confocal laser scanning microscopy images: A, cephalothorax, dorsal view. B, cephalothorax and maxilliped, ventral view. C, Pleotelson and pleopod I, ventral view. Scale bars: A–C = 100 µm.
FIGURE 10. Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 10. Austroniscus brandtae n. sp., holotype male (SMF 57927, R4B). Confocal laser scanning microscopy images. A, habitus, dorsal view. B, habitus, ventral view. C, habitus, lateral view. Scale bar: A–C = 200 µm.
FIGURE 9. Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 9. Austroniscus brandtae n. sp.; A–E, paratype male (SMF 57929, R4D). A, habitus, lateral view. B, Pereopod III. C, Pereopod IV. D, Pereopod VI. E, Pereopod VII. Scale bar: A = 500 µm, B–E = 100 µm.
FIGURE 8. Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 8. Austroniscus brandtae n. sp.; A, holotype male (SMF 57927, R4B), B–F, paratype male (SMF 57929, R4D). A, habitus, dorsal view. B, D, Maxilla, detail: medial endite. C, Maxillula. E, left Mandible (different orientations), detail: incisor and lacinia mobilis. F, maxilliped, detail: endite, retinacula and palpal articles 4 and 5. Scale bar: A = 200 µm, B–E = 100 µm, F = 500 µm.
FIGURE 6 in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 6. Bathymetric (A) and geographic distribution (B) of described Austroniscus species; 1) A. acutus Birstein, 1970; 2) A. chelus Kaiser & Brandt, 2007; 3) A. brandtae Kaiser, Stransky & Brix n. sp.; 4) A. coronatus Schiecke & Modigh-Tota, 1976; 5) A. groenlandicus Hansen, 1916; 6) A. karamani Birstein, 1962; 7) A. norbi Svavarsson, 1982; 8) A. obscurus Kaiser & Brandt, 2007; 9) A. ovalis Vanĥffen, 1914; 10) A. rotundatus Vanĥffen, 1914; 11) A. vinogradovi Gurjanova, 1950. Taxonomy and depth ranges in accordance with WoRMS (WoRMS Editorial Board 2021).
FIGURE 7. Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 7. Austroniscus brandtae n. sp.; A–C, holotype male (SMF 57927, R4B), D–H, paratype male (SMF 57929, R4D). A, habitus, dorsal view. B, Antenna articles 1–4, ventral view. C, Pereonite 1 coxa, ventral view. D, Antennula. E, Pleopod I, detail: lateral lobe and distal margin. F, Pleopod II. G, Pereopod I, detail: ungius. H, Uropod. Scale bar: A = 200 µm, D, H = 500 µm, E–G = 100 µm.
FIGURE 5. Haplotype network for Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 5. Haplotype network for Austroniscus brandtae n. sp. for the mitochondrial ribosomal large subunit 16S. Sampled haplotypes are shown as solid circles with circle area proportional to the number of individuals possessing that haplotype; black circles represent unsampled haplotypes required to connect the network. The number of mutational steps between haplotypes are shown along connecting lines. The colours represent sampling locations as indicated in the legend.
FIGURE 3 in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 3. Bayesian phylogenetic tree of Austroniscus Vanĥffen, 1914 (Crustacea, Isopoda) lineages based on the mitochondrial ribosomal large subunit 16S, with molecular species delimitations shown as black bars.
FIGURE 4. Haplotype network for Austroniscus brandtae n in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 4. Haplotype network for Austroniscus brandtae n. sp. for COI (cytochrome c oxidase subunit I). Sampled haplotypes are shown as solid circles with circle area proportional to the number of individuals possessing that haplotype; black circles represent unsampled haplotypes required to connect the network. The number of mutational steps between haplotypes are shown along connecting lines. The colours represent sampling locations as indicated in the legend.
FIGURE 2 in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 2. Bayesian phylogenetic tree of Austroniscus Vanĥffen, 1914 (Crustacea, Isopoda) lineages based on the cytochrome c oxidase subunit I gene (COI), with molecular species delimitations shown as black bars.
FIGURE 1. A in Combining morphological and mitochondrial DNA data to describe a new species of Austroniscus Vanhöffen, 1914 (Isopoda, Janiroidea, Nannoniscidae) linking abyssal and hadal depths of the Puerto Rico Trench
FIGURE 1. A) Global distribution of Austroniscus Vanĥffen, 1914 (Crustacea, Isopoda) species (only type localities shown); 1) A. acutus Birstein, 1970; 2) A. chelus Kaiser & Brandt, 2007; 3) A. brandtae Kaiser, Stransky & Brix n. sp.; 4) A. coronatus Schiecke & Modigh-Tota, 1976*; 5) A. groenlandicus Hansen, 1916*; 6) A. karamani Birstein, 1962; 7) A. norbi Svavarsson, 1982; 9) A. ovalis Vanĥffen, 1914*; 10) A. rotundatus Vanĥffen, 1914*; 11) A. vinogradovi Gurjanova, 1950; *the exact coordinates of the type locality were not given in the description of these species, therefore the position shown is assumed here on the basis of the original literature. B) Map of the sampling area of Austroniscus brandtae Kaiser, Stransky & Brix n. sp. in the Puerto Rico Trench abyss and hadal.
Code and Data for "AC Josephson effect in a gate-tunable Cd3As2 nanowire superconducting weak link"
<p>This data set contains Python code to evaluate Shapiro maps and the measurement data, its metadata as well as figures used for the publication "AC Josephson effect in a gate-tunable Cd<sub>3</sub>As<sub>2</sub> nanowire superconducting weak link".</p>
data for Multi-tissue H3K27ac profiling of GTEx samples links epigenomic variation to disease
<p>processed data for "Multi-tissue H3K27ac profiling of GTEx samples links epigenomic variation to disease"</p>
Data for the paper Evaluation of error components in rainfall retrieval from collocated commercial microwave links
<p>The published data for the paper includes rain-induced attenuation and rainfall intensities for commercial microwave links.</p> <p>The data are stored in text files. Timestamps are in UTC time in format yyyy-mm-dd HH:MM:SS. The data are at 1-min temporal resolution.</p> <p>Metadata can be found in the paper (Appendix A: Metadata table of CMLs): Špačková, A., Fencl, M., and Bareš, V.: Evaluation of error components in rainfall retrieval from collocated commercial microwave links, Atmos. Meas. Tech. Discuss. [preprint], https://doi.org/10.5194/amt-2022-340, in review, 2023.</p> <p>The repository contains 2 folders (rain-induced attenuation and rainfall intensities) and Read_me file.</p>
Data of "Towards linking slab window geodynamics with the geophysical and geochemical signature of the upper mantle", Sanhueza et al. EPSL
<p><strong>Description for sanhuezaetal_epsl_ternary.zip</strong><br> These files contain a high resolution figure and a script to reproduce the ternary diagram (Figure 5d) of the paper:</p> <p>Sanhueza et al. Towards linking slab window geodynamics with the geophysical and geochemical signature of the upper mantle, <br> under review in Earth and Planetary Science Letters.</p> <p>A high resolution figure of the ternary diagram is provided (sanhuezaetal_EPSL_ternary.pdf).</p> <p>In addition, the MATLAB script to plot this diagram is included.<br> This script (ternary_plot.m) uses 4 files: temp_RGB.txt, melt_RGB.txt, matrix_RGB.txt, rminmax_RGB.txt</p> <p><br> FILE LIST<br> sanhuezaetal_EPSL_ternary.zip<br> -sanhuezaetal_EPSL_ternary.pdf - High resolution Figure 5d of the manuscript<br> -ternary_plot.m - MATLAB script to generate Figure 5d<br> -temp_RGB.txt - Normalized temperatures in the r-alpha space<br> -melt_RGB.txt - Normalized upward melt flux in the r-alpha space<br> -matrix_RGB.txt - Normalized upward matrix flux in the r-alpha space<br> -rminmax.txt - Envelope of r = rcmin and r = rcmax<br> </p> <p>---------------------------------------------------------------------------------------------------------------------------------------------------------------</p> <p><strong>Description for sanhuezaetal_epsl_3dmodelresults.zip</strong><br> These files contain 3D model results presented in the manuscript:</p> <p>Sanhueza et al. Towards linking slab window geodynamics with the geophysical and geochemical signature of the upper mantle, <br> under review in Earth and Planetary Science Letters.</p> <p>These files were obtained after interpolating the model in a regular grid with cells of 10 km x 10 km x 10 km.</p> <p><br> FILE LIST<br> sanhuezaetal_EPSL_results.zip</p> <p>a0r1_Tvxvyvz.txt, a0r2_Tvxvyvz.txt a0r05_Tvxvyvz.txt<br> a10r1_Tvxvyvz.txt, a10r3_Tvxvyvz.txt, a10r04_Tvxvyvz.txt<br> a20r1_Tvxvyvz.txt, a20r2_Tvxvyvz.txt, a20r05_Tvxvyvz.txt<br> a30r1_Tvxvyvz.txt, a30r07_Tvxvyvz.txt, a30r15_Tvxvyvz.txt<br> a45r1_Tvxvyvz.txt, a45r08_Tvxvyvz.txt, a45r12_Tvxvyvz.txt<br> a60r1_Tvxvyvz.txt, a70r1_Tvxvyvz.txt</p>
Menghubungkan Data Musik dari Spotify dan YouTube dengan Menggunakan Vocabularies Extended dan Linked Data
<p><strong>Menghubungkan Data Musik dari Spotify dan YouTube dengan Menggunakan Vocabularies dan Linked Data. Dataset diambil dari link </strong><a href="https://www.kaggle.com/datasets/salvatorerastelli/spotify-and-youtube">Spotify and Youtube (kaggle.com)</a></p>
Fig. 5 in An integrated analysis of hyperspectral and morphological data of cicada ovipositors revealed unexplored links to specific oviposition hosts
Fig. 5 Hierarchical cluster cladogram based on 25 morphological characters for each of the 11 cicada species. Ca, Cryptotympana atrata; Hm, Hyalessa maculaticollis; Kc, Karenia caelatata; Kn, Katoa neokanagana; Mm, Meimuna mongolica; Mo, Meimuna opalifera; Ph, Platypleura hilpa; Pk, Platypleura kaempferi; Pl, Pomponia linearis; Sy, Subpsaltria yangi; Tj, Tanna japonensis. Height: the value of the criterion associated with the clustering method for the particular agglomeration
Fig. 4 in An integrated analysis of hyperspectral and morphological data of cicada ovipositors revealed unexplored links to specific oviposition hosts
Fig. 4 Comparison of morphological characters of ovipositors among different species. a Ovipositor length; b ovipositor height; c basal width of ovipositor; d apical width of ovipositor; e subapical width of ovipositor; f curvature. Data are presented as mean ± SE. Ca, Cryptotympana atrata; Hm, Hyalessa maculaticollis; Kc, Karenia caelatata; Kn, Katoa neokanagana; Mm, Meimuna mongolica; Mo, Meimuna opalifera; Ph, Platypleura hilpa; Pk, Platypleura kaempferi; Pl, Pomponia linearis; Sy, Subpsaltria yangi; Tj, Tanna japonensis
Fig. 2 in An integrated analysis of hyperspectral and morphological data of cicada ovipositors revealed unexplored links to specific oviposition hosts
Fig. 2 Four major types of sensilla. a Campaniform sensilla; b Basiconica sensilla; c Trichoid sensilla; d Coeloconic sensilla [from Zhong et al. (2017), with kind permission from Springer publishers]. Scale bars: a, b, d 5 µm; c 20 µm
Data for: Linking vertical movements of large pelagic predators with distribution patterns of biomass in the open ocean
<p>Many predator species make regular excursions from near-surface waters to the twilight (200-1,000 m) and midnight (1,000-3,000 m) zones of the deep pelagic ocean. While the occurrence of significant vertical movements into the deep ocean has evolved independently across taxonomic groups, the functional role(s) and ecological significance of these movements remain poorly understood. Here, we integrate results from satellite tagging efforts with model-predictions of deep prey layers in the North Atlantic Ocean to determine if prey distributions are correlated with vertical habitat use across 12 species of predators. Using 3D movement data for 344 individuals that traversed nearly 1.5 million km of pelagic ocean in >42,000 days, we found that nearly every tagged predator frequented the twilight zone and many made regular trips to the midnight zone. Using a predictive model, we found clear alignment of predator depth use with the expected location of deep pelagic prey for at least half of the predator species. We compared high-resolution predator data with shipboard acoustics and selected representative matches that highlight the opportunities and challenges in the analysis and synthesis of these data. While not all observed behavior was consistent with estimated prey availability at depth, our results suggest that deep pelagic biomass likely has high ecological value for a suite of commercially important predators in the open ocean. Careful consideration of the disruption to ecosystem services provided by pelagic food webs is needed before the potential costs and benefits of proceeding with extractive activities in the deep ocean can be evaluated.</p>
ScienceDex guides
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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.