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1,477 results for “earth”
FIGURE 56 in The Batrisini of Tibet: unveiling an enigmatic ant-loving beetle diversity at Earth's "Third Pole" (Coleoptera, Staphylinidae, Pselaphinae)
FIGURE 56. Morphology of Sathytes proclivis sp. nov. (A–F. Male. G. Female). A. Dorsal habitus. B. Head and pronotum. C. Antennomeres 9–11. D. Antennomere 9. E. Sternite 7 (IX). F. Aedeagus, ventral. G. Genitalia. Scale bars: 0.5 mm in A; 0.3 mm in B, C; 0.1 mm in D–G.
Seismological observation of Earth's oscillating inner core
<p>This is the dataset for the paper 'Seismological observation of Earth’s oscillating inner core'.</p>
Figure 4 in Another case of colour pattern polymorphism in Earth Snakes of the genus Geophis (Dipsadidae) from southern Mexico
Figure 4. Geographic distribution of the species of the Geophis sieboldi group in the states of Guerrero and Oaxaca, Mexico. Closed squares = G. cf. sieboldi; open squares = G. sallaei; closed triangles = G. petersii; open triangles = G. occabus; open circles = G. russatus; closed circles = G. laticollaris.
Figure 3 in Another case of colour pattern polymorphism in Earth Snakes of the genus Geophis (Dipsadidae) from southern Mexico
Figure 3. Hemipenial morphology of G. laticollaris (MZFC 35649) on sulcate (left) and asulcate (right) views. Length of the organ = 10.6 mm.
Figure 1 in Another case of colour pattern polymorphism in Earth Snakes of the genus Geophis (Dipsadidae) from southern Mexico
Figure 1. Phylogenetic relationships of Geophis based on a Bayesian analysis of partial sequences of the cyt-b mitochondrial gene. Numbers at nodes represent Bayesian posterior probabilities/bootstrap values.
Figure 2 in Another case of colour pattern polymorphism in Earth Snakes of the genus Geophis (Dipsadidae) from southern Mexico
Figure 2. Colour pattern variation exhibited by Geophis russatus (a: MZFC 35650, b: MZFC 35648, c: MZFC 35647) and G. laticollaris (d: MZFC 35649, e: MZFC 34933, f: MZFC 34932).
Earth and life evolve together from something ancestral — reply to Britz et al
<p class="MsoNormal"><span>Ricefishes of the family Adrianichthyidae are considered to have dispersed eastward "out-of-India" after the collision of the Indian subcontinent with Eurasia and subsequently diversified in Southeast<span class="s1"><span>-</span></span>East Asia. In this study, </span><span>we reconstructed ancestral areas of Adrianichthyidae with BioGeoBEARS, expanding the scope to include Cyprinodontiformes, the outgroup of Beloniformes to which Adrianichthyidae belongs. The results again supported the "out-of-India" dispersal scenario. The dataset contained all files necessary for the BioGeoBEARS analysis.</span></p>
Data and Codes of Characterizing Uncertainties of Earth System Modeling with Heterogeneous Many-core Architecture Computing
<p>These are the supporting information to verify the results in the paper, including input data, model outputs, the postprocessing scripts and the source codes.</p>
Diurnal rainfall response to the physiological and radiative effects of CO2 in tropical forests in the Energy Exascale Earth System Model v1
<p>Necessary outputs and scripts for recreating the figures for the journal article with the same title.</p>
FIGURE. Geographical location of the Augusto Ruschi Biological Reserve (ARBR), Santa Teresa, Espírito Santo, Brazil. a the state of Espírito Santo, highlighting the location of the ARBR. b delimitation of the ARBR. c–e ARBR vegetation. (a: prepared by Henrique Lauand Ribeiro, b: adapted from Google Earth Pro, c–e: photos of Gabriel Mendes Marcusso). in Augusto Ruschi Biological Reserve vascular epiphytes: a hotspot in the mountains of the Atlantic Forest of Southeastern Brazil
FIGURE. Geographical location of the Augusto Ruschi Biological Reserve (ARBR), Santa Teresa, Espírito Santo, Brazil. a the state of Espírito Santo, highlighting the location of the ARBR. b delimitation of the ARBR. c–e ARBR vegetation. (a: prepared by Henrique Lauand Ribeiro, b: adapted from Google Earth Pro, c–e: photos of Gabriel Mendes Marcusso).
Passive breathing of earth-air: 'fingerprint' evidence from moisture records
<p><em>Data in Brief.</em></p>
the data of "High-pressure behavior of synthetic quenchable hydroxylbastnasite-(Sm): Implications for rare earth elements, carbon, and water transmission into the deep earth"
<p>This is the package of the Raman data of synthesized Sm(CO<sub>3</sub>)OH at high-pressure and ambient temperature and synchrotron radiation X-Ray data of synthesized Sm(CO<sub>3</sub>)OH at high-pressure and ambient temperature, they are in *.asc and *.chi respectively.</p>
ONE-EARTH-D-21-00215 Data&results
<p>All of the data and results that support the findings of the research paper ONE-EARTH-D-21-00215‘Near-term decarbonization of Class-8 heavy-duty trucks in China requires a broad mix of advanced powertrains to be complemented by low-carbon energies ’</p>
Research Data for Martin and Edmonds, 2022, Earth Surface Dynamics.
<p>Research data for: Martin, H.K and Edmonds, D.A., 2022. The push and pull of abandoned channels: How floodplain processes and healing affect avulsion dynamics and alluvial landscape evolution in foreland basins. Earth Surface Dynamics. Available at: https://doi.org/10.5194/esurf-2021-82.</p> <p>Consists of .gif animations and some .csv files for all model output used to generate figures for the paper.</p> <p> </p>
Data set "Narrow, fast, and "cool" mantle plumes caused by strain-weakening rheology in Earth's lower mantle" (G-cubed)
<p>This archive contains data related to the manuscript “Narrow, fast, and “cool” mantle plumes caused by strain-weakening rheology in Earth’s lower mantle” by Gülcher et al., (G-cubed). It contains output quantities and selected fields for the numerical models shown and discussed in the paper (M###). Moreover, it contains the input parametric files implemented in StagYY. Please read the README.dat file for more information. </p>
On following pages: 534. Macedonian Mouse (Mus macedonicus); 535. Mound-building Mouse (Mus spicilegus); 536. Cypriot Mouse (Mus cypriacus); 537. Ethiopian Striped Mouse (Mus imberbis); 538. Mahomet Mouse (Mus mahomet): 539. Hausa Mouse (Mus haussa); 540. West African Pygmy Mouse (Mus musculoides); 541. Baoule Mouse (Mus baoulei); 542. Matthey's Mouse (Mus mattheyi); 543. Toad Mouse (Mus bufo); 544. Callewaert's Mouse (Mus callewaerti); 545. Gounda Mouse (Mus goundae); 546. Neave's Mouse (Mus neavel); 547. Ubangui Mouse (Mus oubanguii); 548. Peters's Mouse (Mus setulosus); 549. Thomas's Mouse (Mus sorella): 550. Gray-bellied Mouse (Mustriton); 551. Delicate Mouse (Mus tenellus); 552. Desert Pygmy Mouse (Mus indutus); 553. Sub-Saharan Pygmy Mouse (Mus minutoides); 554. Setzer's Mouse (Mus setzeri); 555. Little Indian Field Mouse (Mus booduga); 556. Phillips's Mouse (Mus phillipsi); 557. Flat-haired Mouse (Mus platythrix); 558. Saxicolous Mouse (Mus saxicola); 559. Earth-colored Mouse (Mus terricolon); 560. Servant Mouse (Mus famulus): 561. Ceylon Spiny Mouse (Mus fernandoni); 562. Mayor's Mouse (Mus mayori); 563. Ryukyu Mouse (Mus caroli); 564. Fawn-colored Mouse (Mus cervicolor); 565. Cook's Mouse (Mus cookii); 566. Sheath-tailed Mouse (Mus fragilicauda); 567. Little Burmese Field Mouse (Mus lepidoides); 568. Blyth's Mouse (Mus nitidulus); 569. Indochinese Shrew-like Mouse (Mus pahari); 570. Shortridge's Mouse (Mus shortridgei); 571. Sumatran Shrew-like Mouse (Mus crociduroides); 572. Javan Shrew-like Mouse (Mus vulcani). in Muridae
On following pages: 534. Macedonian Mouse (Mus macedonicus); 535. Mound-building Mouse (Mus spicilegus); 536. Cypriot Mouse (Mus cypriacus); 537. Ethiopian Striped Mouse (Mus imberbis); 538. Mahomet Mouse (Mus mahomet): 539. Hausa Mouse (Mus haussa); 540. West African Pygmy Mouse (Mus musculoides); 541. Baoule Mouse (Mus baoulei); 542. Matthey's Mouse (Mus mattheyi); 543. Toad Mouse (Mus bufo); 544. Callewaert's Mouse (Mus callewaerti); 545. Gounda Mouse (Mus goundae); 546. Neave's Mouse (Mus neavel); 547. Ubangui Mouse (Mus oubanguii); 548. Peters's Mouse (Mus setulosus); 549. Thomas's Mouse (Mus sorella): 550. Gray-bellied Mouse (Mustriton); 551. Delicate Mouse (Mus tenellus); 552. Desert Pygmy Mouse (Mus indutus); 553. Sub-Saharan Pygmy Mouse (Mus minutoides); 554. Setzer's Mouse (Mus setzeri); 555. Little Indian Field Mouse (Mus booduga); 556. Phillips's Mouse (Mus phillipsi); 557. Flat-haired Mouse (Mus platythrix); 558. Saxicolous Mouse (Mus saxicola); 559. Earth-colored Mouse (Mus terricolon); 560. Servant Mouse (Mus famulus): 561. Ceylon Spiny Mouse (Mus fernandoni); 562. Mayor's Mouse (Mus mayori); 563. Ryukyu Mouse (Mus caroli); 564. Fawn-colored Mouse (Mus cervicolor); 565. Cook's Mouse (Mus cookii); 566. Sheath-tailed Mouse (Mus fragilicauda); 567. Little Burmese Field Mouse (Mus lepidoides); 568. Blyth's Mouse (Mus nitidulus); 569. Indochinese Shrew-like Mouse (Mus pahari); 570. Shortridge's Mouse (Mus shortridgei); 571. Sumatran Shrew-like Mouse (Mus crociduroides); 572. Javan Shrew-like Mouse (Mus vulcani).
Data Set for Sandanbata et al. (2022: JGR-Solid Earth) entitled "Sub-decadal Volcanic Tsunamis Due to Submarine Trapdoor Faulting at Sumisu Caldera in the Izu-Bonin Arc"
<p><strong>Descriptions</strong></p> <p>This dataset contains supplementary materials for the following research article:</p> <ul> <li>Sandanbata, O., Watada, S., Satake, K., Kanamori, H., Rivera, L., & Zhan, Z. (2022). Sub-decadal volcanic tsunamis due to submarine trapdoor faulting at Sumisu caldera in the Izu–Bonin Arc. <em>Journal of Geophysical Research: Solid Earth</em>, 127, e2022JB024213. <a href="https://doi.org/10.1029/2022JB024213">https://doi.org/10.1029/2022JB024213</a></li> </ul> <p>We construct earthquake source models for the 2015 earthquake at Sumisu caldera in the Izu-Bonin Arc. Four source models, presented in Figures 4a, S8a, S9a, and S14a, are contained in this dataset. </p>
Non-detected changes of dark spots on Mercury in 30 Earth months
<p>Central coordinates for each of the cataloged dark spots on Mercury.</p>
GOCE-only spherical harmonic models of the Earth's gravitational field
<p>Provided are the global GOCE-only spherical harmonic models of the Earth's gravitational field developed by <a href="http://doi.org/10.1007/s10712-015-9344-0">Bucha et al. (2015)</a>.</p> <ul> <li>The key data is the kinematic orbit of the GOCE satellite spanning the period from 01 November 2009 to 11 January 2010 (the R1 period).</li> <li>The <a href="http://doi.org/10.1016/j.asr.2013.11.031">acceleration approach</a> was used to invert the kinematic orbit into the gravity field models.</li> <li>The models were derived by spherical radial basis functions (Shannon SRBF) and subsequently they were transformed into spherical harmonics. The transformation is exact without any approximations.</li> <li>The problematic near-zonal coefficients (polar gap) are stabilized by prior information from our own low-degree GOCE-only models, so that the final models are still GOCE-only.</li> <li>The models are estimated up to relatively high harmonic degrees (75, 100, 130) to mitigate the aliasing, but it is not recommended to use them beyond degree, say, 70 due to the adverse signal-to-noise ratio.</li> <li>The models are provided in the <a href="http://icgem.gfz-potsdam.de/ICGEM-Format-2011.pdf">gfc</a> format as defined by <a href="http://icgem.gfz-potsdam.de">ICGEM</a>.</li> </ul> <p>The models have been published in Bucha, B., Bezdek, A., Sebera, J., Janak, J., 2015. <em>Global and regional gravity field determination from GOCE kinematic orbit by means of spherical radial basis functions</em>. Surveys in Geophysics 36, 773-801, <a href="http://doi.org/10.1007/s10712-015-9344-0">http://doi.org/10.1007/s10712-015-9344-0</a></p>
Source Data for Direct observations of energy transfer from resonant electrons to whistler-mode waves in magnetosheath of Earth
<p>Source Data files for figures and Supplementary figures in the manuscript "Direct observations of energy transfer from resonant electrons to whistler-mode waves in magnetosheath of Earth".</p> <p>Source_Data.zip includes data files (.txt or .xlsx) for each panel in the figures.</p> <p>tplot_save_files_w_load_procedures_for_time_series_plots.zip includes, tplot save files (.tplot) of time series plot figures and procedures to load and plot the tplot save files with SPEDAS (bleeding edge >r31062).</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.