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2,021 results for “valley”
Figure 1 from: Gladstone NS, Perez KE, Pieper EB, Carter ET, Dooley KE, Shoobs NF, Engel AS, Niemiller ML (2019) A new species of stygobitic snail in the genus Antrorbis Hershler & Thompson, 1990 (Gastropoda, Cochliopidae) from the Appalachian Valley and Ridge of eastern Tennessee, USA. ZooKeys 898: 103-120. https://doi.org/10.3897/zookeys.898.46917
Figure 1 Distribution of Antrorbis spp. in relation to USGS hydrologic units: regions (HU2, shaded areas), basins (HU6, solid black lines), and subbasins (HU8, solid grey lines; unlabeled in map). Antrorbis breweri occurs within the Upper Coosa subbasin of the South Atlantic-Gulf region, whereas A. tennesseensis and Antrorbis cf. tennesseensis occurs in the Watts Bar Lake and Lower Clinch subbasins within the Upper Tennessee basin (Tennessee region), respectively.
Figure 5 from: Gladstone NS, Perez KE, Pieper EB, Carter ET, Dooley KE, Shoobs NF, Engel AS, Niemiller ML (2019) A new species of stygobitic snail in the genus Antrorbis Hershler & Thompson, 1990 (Gastropoda, Cochliopidae) from the Appalachian Valley and Ridge of eastern Tennessee, USA. ZooKeys 898: 103-120. https://doi.org/10.3897/zookeys.898.46917
Figure 5 Maximum-likelihood phylogeny of four families within the Cochliopidae. Phylogeny is inferred by W-IQ-TREE based on mitochondrial CO1 sequences (658 bp aligned). Ultrafast bootstrap support values shown at nodes.
Figure 2 from: Gladstone NS, Perez KE, Pieper EB, Carter ET, Dooley KE, Shoobs NF, Engel AS, Niemiller ML (2019) A new species of stygobitic snail in the genus Antrorbis Hershler & Thompson, 1990 (Gastropoda, Cochliopidae) from the Appalachian Valley and Ridge of eastern Tennessee, USA. ZooKeys 898: 103-120. https://doi.org/10.3897/zookeys.898.46917
Figure 2 Paratype specimens of Antrorbis tennesseensis sp. nov. A, B Paratypes ANSP A477042 C–EAntrorbis cf. tennesseensis; ANSP A476794 F live specimens of Antrorbis cf. tennesseensisfrom Pedigo Cave. Scale bar: 1 mm. Photograph credits: A–E NFS; F MLN.
Supplementary material 1 from: Gladstone NS, Perez KE, Pieper EB, Carter ET, Dooley KE, Shoobs NF, Engel AS, Niemiller ML (2019) A new species of stygobitic snail in the genus Antrorbis Hershler & Thompson, 1990 (Gastropoda, Cochliopidae) from the Appalachian Valley and Ridge of eastern Tennessee, USA. ZooKeys 898: 103-120. https://doi.org/10.3897/zookeys.898.46917
: Data type: species data
Rift Valley Fever reported outbreaks from 2006 to January 2020
<p>This is a movie map showing the Rift Valley Fever outbreaks in animals and humans reported by OIE and WHO respectively since 2006 until January 2020.</p>
Elevation data to accompany "A curvature-based method for measuring valley width applied to glacial and fluvial landscapes"
<p>This repository contains elevation data, derivatives, and manual measurements used in the manuscript "A curvature-based method for measuring valley width applied to glacial and fluvial landscapes" submitted to the Journal of Geophysical Research.</p> <p>This data is derived from the 1/3 arc-second (~10 m) resolution seamless digital elevation models from the 3D Elevation Program (3DEP) in the coterminous United States [0]. The Canadian Rockies study site uses 90 m resolution data derived from the Shuttle Radar Topography Mission (SRTM) dataset [1].</p> <p>Each study site corresponds to a single directory (e.g. 'valley_width/olympics/').</p> <p>Derivatives are stored in GeoTIFF format (with no file extensions) with the following naming conventions (shown for the Olympic Mountains study area). Manual width measurements are stored as Pickle files (e.g. 'olympics_width_fluvial.p') in the measurements/ subdirectory in each case.</p> <p>- olympics_area (Catchment area)<br> - olympics_elevation (Elevation)<br> - olympics_filled (Hydrologically corrected elevation)<br> - olympics_flow_direction (Flow direction)<br> - olympics_mask_fluvial (Binary mask of fluvial catchments)<br> - olympics_mask_glacial (Binary mask of glacial catchments)<br> - olympics_unnormalized_width (Valley width estimated without using scale normalization)<br> - olympics_width (Valley width estimated using scale normalization)</p> <p>Python scripts to reproduce the major figures and analysis and their EPS output are also included.</p> <p>References</p> <p>[0] <a href="https://www.usgs.gov/core-science-systems/ngp/3dep/about-3dep-products-services">https://www.usgs.gov/core-science-systems/ngp/3dep/about-3dep-products-services</a></p> <p>[1] <a href="http://srtm.csi.cgiar.org/srtmdata/">http://srtm.csi.cgiar.org/srtmdata/</a></p>
Fig. 12 in Five new species of Candoninae (Crustacea, Ostracoda) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 12. Valves of Candobrasilopsis acutis sp. nov. C–F ♂ and A–B, G–J ♀. A. LV, internal view. (MZUSP 32701) B. RV, internal view (MZUSP 32701). C, G. Cp, right lateral view (C = MZUSP 32700, G = MZUSP 32706). D, H. Cp, right lateral view, detail (D = MZUSP 32700, H = MZUSP 32706). E, I. Cp, dorsal view (E = MZUSP 32704, I = MZUSP 32707). F, J. Cp, ventral view (F = OC. 3358, J = OC. 3360). Scale bars: A–C, E–G, I–J = 500 µm; D, H = 20 µm.
Fig. 5 in Five new species of Candoninae (Crustacea, Ostracoda) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 5. Limbs of Pseudocandona agostinhoi sp. nov. (♀). A. A2, detail of the last segments (MZUSP 32654). B. Caudal ramus (MZUSP 32654). C. T1 (MZUSP 32654). Scale bars: A–C = 50 µm.
Fig. 7 in Five new species of Candoninae (Crustacea, Ostracoda) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 7. Limbs of Pseudocandona cillisi sp. nov. (♂). A. T3 (MZUSP 32673). B. T2 (MZUSP 32673). C. Md palp (MZUSP 32673). D. Caudal ramus (MZUSP 32673). E. Attachment of the caudal ramus (MZUSP 32673). F. Left prehensile palp (MZUSP 32673). G. Hemipenis (MZUSP 32673). H. Right prehensile palp (MZUSP 32673). Scale bars: A–H = 50 µm.
Fig. 6 in Five new species of Candoninae (Crustacea, Ostracoda) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 6. Valves of Pseudocandona cillisi sp. nov. A–E ♂ and F–J ♀. A, F. LV, internal view (A = MZUSP 32681, F = MZUSP 32672). B, G. RV, internal view (B = MZUSP 32681, G = MZUSP 32672). C, H. Cp, right lateral view (C = MZUSP 32671, H = MZUSP 32678). D, I. Cp, dorsal view (D = OC. 3362, I = OC.3364). E, J. Cp, ventral view (E = MZUSP 32677, J = MZUSP 32680). Scale bars: A–B = 200 µm; C–E, H–J = 500 µm; F–G = 300 µm.
Fig. 8 in Description of a new genus and species of Candonopsini (Crustacea, Ostracoda, Candoninae) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 8. Candobrasilopsis brasiliensis (Sars, 1901) comb. nov., valves (A-E ³, F-J ♀). A, F. LV, internal view (A: MZUSP.28118, F: MZUSP.28125). B, G. RV, internal view (B: MZUSP.28118, G: MZUSP.28125). C, H. Cp, right lateral view (C: MZUSP.28119, H: MZUSP.28126). D, I. Cp, dorsal view (D: OC.3297, I: OC.3301). E, J. Cp, ventral view. (E: OC.3298, J: MZUSP.28127). Scale bars: A, B, H, I = 200 µm; C-G, J = 400 µm.
Fig. 7. — A, B in Description of a new genus and species of Candonopsini (Crustacea, Ostracoda, Candoninae) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 7. — A, B. Candobrasilopsis rochai gen. nov. sp. nov. A. Hemipenis (MZUSP.28104). B. Zenker organ (MZUSP.28115). — C, D. C. brasiliensis (Sars, 1901) comb. nov. C. Hemipenis (OC.3296). D. Zenker organ (OC.3296). Scale bars: A, C, D = 50 µm, B = 100 µm.
Fig. 10 in Description of a new genus and species of Candonopsini (Crustacea, Ostracoda, Candoninae) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 10. Candobrasilopsis brasiliensis (Sars, 1901) comb. nov., limbs (³). A. T1 (palp not shown) (MZUSP.28117). B. Attachment of the caudal ramus (OC.3295). C. T3 (MZUSP.28117). D. Right clasping organ (MZUSP.28117). E. Left clasping organ (MZUSP.28117). F. T2 (MZUSP.28117). G. Mx1, respiratory plate (OC.3296). H. Caudal ramus (OC.3295). Scale bars: A-H = 50 µm.
Fig. 4 in Description of a new genus and species of Candonopsini (Crustacea, Ostracoda, Candoninae) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 4. Candobrasilopsis rochai gen. nov. sp. nov., limbs (³). A. T1, left clasping organ (MZUSP.28114). B. Right clasping organ (MZUSP.28114). C. T2 (MZUSP.28114). D. T3 (MZUSP.28104). E. Caudal ramus (MZUSP.28104). F. Detail of caudal ramus (MZUSP.28115). Scale bars: A-F = 50 µm.
Fig. 11 in Description of a new genus and species of Candonopsini (Crustacea, Ostracoda, Candoninae) from the alluvial valley of the Upper Paraná River (Brazil, South America)
Fig. 11. Candobrasilopsis brasiliensis (Sars, 1901) comb. nov., limbs (♀). A. A2 (MZUSP.28125). B. A2, detail of the last segment (MZUSP.28125). C. Md palp (MZUSP.28125). D. A1 (MZUSP.28125). E. Mx1 (Chaetotaxy incomplete) (OC.3299). F. Md, coxal plate (MZUSP.28125). Scale bars: A-F = 50 µm.
Dataset for ``Valley formation on early Mars by subglacial and fluvial erosion´´
<p>These datasets contain:</p> <p>-Morphometrical data for 66 Martian valley networks, as described in the study ``Valley formation on early Mars by subglacial and <br> fluvial erosion´´.</p> <p>- Shape files and raw data text files with MOLA altimetry data extracted from high resolution valley streamlines, for the purpose of longitudinal profile analysis. </p> <p>- Longitudinal profile observations, including the presence and interpretation of undulating sections. </p> <p>You are free to use and modify this data. If you do so, please cite the study </p> <p>Grau Galofre et al., 2020, ``Valley formation on early Mars by subglacial and fluvial erosion´´</p>
Exciton-to-trion conversion as a control mechanism for valley polarization in room-temperature monolayer WS2
<p>Dataset accompanying "Exciton-to-trion conversion as a control mechanism for valley polarization in room-temperature monolayer WS2"</p>
GInSAR vertical surface displacements over the San Joaquin Valley, CA spanning April 2015 to October 2017
<p>A time series of vertical surface displacements over the San Joaquin Valley (SJV) spanning April 2015 to October 2017.</p> <p>Base Data: European Space Agency’s Sentinel-1A/B descending track 144; National Science Foundation Plate Boundary Observatory Global Positioning System (GPS) network; Southern California Earthquake Center’s Community Geodetic Model</p> <p>Time: 2015.04.01 – 2017.10.23, 51 acquisition times, 263 interferograms</p> <p>Processors/Software: GMTSAR, MATLAB</p> <p>Interferogram construction and unwrapping was performed in GMTSAR. GPS correction, time series inversion, and vertical projection was performed in MATLAB.</p> <p> </p> <p>This dataset was constructed following similar methods outlined in Neely et al., (2020).</p> <p>Neely, Wesley R., Adrian A. Borsa, and Francesca Silverii. “GInSAR: A CGPS Correction for Enhanced InSAR Time Series.” <em>IEEE Transactions on Geoscience and Remote Sensing</em> 58, no. 1 (January 2020): 136–46. <a href="https://doi.org/10.1109/TGRS.2019.2934118">https://doi.org/10.1109/TGRS.2019.2934118</a>.</p> <p> </p> <p>This dataset is provided as a “.mat” compatible with MATLAB. Contents include:</p> <p>TS – 3110x2940x51 matrix of the vertical surface displacements (mm) relative to April 1, 2015</p> <p>X – 3110x2940 matrix of the pixel longitudes (decimal degrees)</p> <p>Y – 3110x2940 matrix of the pixel latitudes (decimal degrees)</p> <p>rate – 3110x2940 matrix of the estimated vertical velocity (mm/yr) over April 2015 to October 2017</p> <p>time – 51x1 array of the dates for each acquisition in MATLAB data. Provided as integer day where time(1) = 736055 à April 1, 2015</p> <p> </p> <p>Example plotting in MATLAB:</p> <p>% plot the rate map</p> <p>figure</p> <p>pcolor(X,Y,rate)</p> <p>shading flat</p> <p> </p> <p>% plot the 25<sup>th</sup> time slice map of the displacement time series</p> <p>figure</p> <p>pcolor(X,Y,squeeze(TS(:,:,25))</p> <p>shading flat</p> <p> </p> <p>% plot the time series at location X(1500,1500) and Y(1500,1500)</p> <p>figure</p> <p>plot(time,squeeze(TS(1500,1500,:)))</p>
Figure 1 in The northward extension of reptiles in the Palearctic, with the Jordan Valley (Israel) as a model: snakes outrace lizards (Reptilia: Squamata)
Figure 1. The geographical distribution of all records of lizards in the study area, solid circles. Also indicated are the approximate locations of some key localities for orientation, open squares.
Figure 4 in The northward extension of reptiles in the Palearctic, with the Jordan Valley (Israel) as a model: snakes outrace lizards (Reptilia: Squamata)
Figure 4. The geographical distribution, in the study area, of the records of two snake species: Echis coloratus terraesanctae (Viperidae), open circles, and Platyceps rogersi (Colubridae), solid circles. Some key localities for orientation are shown in Figure 1.
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.