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Fig. 7 in New Miocene Monachinae From The Western Shore Of The Chesapeake Bay (Maryland, Usa)
Fig. 7. Modern and fossil innominate bones. Left innominate of Leptophoca lenis from Maryland, USA (USNM 263648) in A — lateral (reversed) and B — medial views. Innominate of Recent Phoca vitulina (CMM-O-399, L. and R.) in C — lateral and D — medial views.
Fig. 5 in New Miocene Monachinae From The Western Shore Of The Chesapeake Bay (Maryland, Usa)
Fig. 5. Sacrum. Sacrum of Leptophoca lenis from Maryland, USA (USNM 23231) in A — dorsal; B — ventral and C — cranial views.Sacrum of Terranectes magnus (CMM-V-4703) in D — lateral; E — ventral, and F — medial views.
Fig. 2 and table 3 in Phenotypic Diversities Of Four Populations Of Clarias Gariepinus (Siluriformes, Clariidae) Obtained From Ogun And Ondo State Waterbodies In South-Western Nigeria
Fig. 2 and table 3 illustrate the values of PCA loadings for the morphometrics of Clarias gariepinus obtained from the four Rivers showing Pre-ventral distance (PVD) as the trait with the highest variation.
Fig. 19. Acanthocreagris iranica Beier, 1976 in A Redescription Of Acanthocreagris Iranica (Pseudoscorpiones, Neobisiidae) Inhabiting Soil Under Oak Trees In Zagros Forest, Western Iran
Fig. 19. Acanthocreagris iranica Beier, 1976: graph depicting pedipalpal femur ratio of deutonymph, tritonymphs and adults collected from Ilam and Lorestan Provinces, western Iran (mm = millimeter).
Fig. 12–18 in A Redescription Of Acanthocreagris Iranica (Pseudoscorpiones, Neobisiidae) Inhabiting Soil Under Oak Trees In Zagros Forest, Western Iran
Fig. 12–18. Acanthocreagris iranica: 12 — female, right chela, lateral view; 13 — female, tip of fixed chelal finger (showing nodus ramosus); 14 — female, tip of movable chelal finger; 15 — male, right pedal coxa I (showing anterolateral process), ventral view; 16 — male, leg I (trochanter omitted); 17 — male, leg IV (trochanter omitted); 18 — male, tip of tarsus IV (showing claws, arolium and sub-terminal seta).
Fig. 1–11 in A Redescription Of Acanthocreagris Iranica (Pseudoscorpiones, Neobisiidae) Inhabiting Soil Under Oak Trees In Zagros Forest, Western Iran
Fig. 1–11. Acanthocreagris iranica: 1 — male, carapace (showing chaetotaxy, eyes position, lyrifissures and epistome structure), dorsal view; 2 — male, anterior margin of carapace (showing setal arrangement close eyes), dorsal view; 3 — female, anterior margin of carapace (showing loss of epistome), dorsal view; 4 — tritonymph, distal part of carapace, dorsal view; 5 — deutonymph, distal part of carapace, dorsal view; 6 — male, chelicera, ventral view (rallum, serrula exterior and serrula interior omitted); 7 — male, cheliceral finger (showing teeth, serrula exterior and serrula interior); 8 — male, rallum; 9 — deutonymph, left pedipalp, dorsal view; 10 — tritonymph, left pedipalp, dorsal view; 11— male, left pedipalp, dorsal view.
Fig. 2 in Ruff, Philomachus Pugnax (Aves, Charadriiformes), Migration In Western Ukraine
Fig. 2. Distributions of biometrical measurements of female Ruffs caught in the Cholgini ornithological reserve during 1995–2012.
Fig. 1 in Ruff, Philomachus Pugnax (Aves, Charadriiformes), Migration In Western Ukraine
Fig. 1. Migration dynamics of Ruffs in the Cholgini ornithological reserve in 1995–2012 (solid line — mean count in the pentad, dashed line — maximum count).
Fig. 4 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Reptiles
Fig. 4. Areas (polygons) in Western Podillya (Ukraine), where there is a predicted probability for the accommodation 9, 8 or 7 reptile species (gradient from dark gray — 9 species to light — 7 species). Districts numbered as in fig. 3.
Fig. 3 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Reptiles
Fig. 3. Areas (downward diagonal filled polygons) in Western Podillya (Ukraine), where the average predicted habitat suitability for reptile species exceeds 0.5 (Districts: 1 — Terebovlianskyi, 2 —Husiatynskyi, 3 — Buchatskyi, 4 — Chortkivskyi, 5 — Chemerovetskyi, 6 — Horodenkivskyi, 7 — Zalishchytskyi, 8 — Borshchivskyi, 9 — Kamianets-Podilskyi, 10 — Zastavnivskyi, 11 — Khotynskyi).
Fig. 3. A in Rediscovery Of The Northern Mole Vole, Ellobius Talpinus (Rodentia, Cricetidae), At The Western Bank Of The Dnipro River, Ukraine
Fig. 3. A northern mole vole near the village of Novokairy in Kherson Region, 26.08. 2013 (photo by V. Strigunov).
Fig. 4 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Amphibians
Fig. 4. Two upper categories ("Moderate" and "High") collapsed to identify areas of predicted presence (dark gray shading) for B. variegata in the study area.
Fig. 1 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Amphibians
Fig. 1. Response of Bombina variegata to Bio 11: x-axis — mean temperature of coldest quarter (°C x 10); y- axis— logistic output (probability of presence).
Fig. 3 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Amphibians
Fig. 3. Response of Triturus cristatus to the Human Footprint: x-axis — Human Footprint; y-axis — logistic output (probability of presence).
Fig. 2 in Using Ecological Niche Modeling For Biodiversity Conservation Guidance In The Western Podillya (Ukraine): Amphibians
Fig. 2. Response of Pelobates fuscus to Bio 3: x-axis — isothermality; y-axis — logistic output (probability of presence).
Fig. 3 in New Miocene Monachinae From The Western Shore Of The Chesapeake Bay (Maryland, Usa)
Fig. 3. Stratigraphic correlation of the Chesapeake Group. Site #PQ-BH9812, in southern Southampton County, Virginia, near the North Carolina border, exposes beds of the Eastover Formation.
Data from: Effect of altitude on volatile organic and phenolic compounds of artemisia brevifolia wall ex Dc. from the Western Himalayas
<p>Adaptation to changing environmental conditions is a driver of plant diversification. Elevational gradients offer a unique opportunity for investigating adaptation to a range of climatic conditions. The use of specialized metabolites as volatile and phenolic compounds is a major adaptation in plants, affecting their reproductive success and survival by attracting pollinators and protecting themselves from herbivores and other stressors. The wormseed <em>Artemisia brevifolia</em> can be found across multiple elevations in the Western Himalayas, a region that is considered a biodiversity hotspot and is highly impacted by climate change. This study aims at understanding the volatile and phenolic compounds produced by <em>A. brevifolia </em>in the high elevation cold deserts of the Western Himalayas with the view to understanding the survival strategies employed by plants under harsh conditions. Across four sampling sites with different elevations, polydimethylsiloxane (PDMS) sampling and subsequent GCMS analyses showed that the total number of volatile compounds in the plant headspace increased with elevation and that this trend was largely driven by an increase in compounds with low volatility, which might improve the plant's resilience to abiotic stress. HPLC analyses showed no effect of elevation on the total number of phenolic compounds detected in both young and mature leaves. However, the concentration of the majority of phenolic compounds decreased with elevation. As the production of phenolic defense compounds is a costly trait, plants at higher elevations might face a trade-off between energy expenditure and protecting themselves from herbivores. This study can therefore help us understand how plants adjust secondary metabolite production to cope with harsh environments and reveal the climate adaptability of such species in highly threatened regions of our planet such as the Himalayas.</p>
Dataset for "Bioaerosol diversity and Ice nucleating particles in the North-Western Himalayan Region"
<p>Dataset for "Bioaerosol diversity and Ice nucleating particles in the North-Western Himalayan Region". Contains data and scripts to reproduce the figures in the manuscript. See README.md for more information.</p>
Adaptation to lower latitudes and lower elevations precedes the evolution of hummingbird pollination in western North American Penstemon
<p>Premise: A switch in pollinator can occur when a plant lineage enters a new habitat where the ancestral pollinator is less common and a novel pollinator is more common. Since pollinator communities vary according to environmental tolerances and availability of resources, there may be consistent associations between pollination mode and specific regions and habitats. Such associations can be studied in lineages that have experienced multiple pollinator transitions, representing evolutionary replicates.</p> <p>Methods: Our study focused on a large clade of Penstemon wildflower species in western North America that has repeatedly evolved hummingbird-adapted flowers from ancestral bee-adapted flowers. For each species, we estimated geographic ranges from occurrence data and inferred environmental niches from climate, topographical, and soil data. Using a phylogenetic comparative approach, we investigated whether hummingbird-adapted species occupy distinct geographic regions or habitats relative to beeadapted species.</p> <p>Results: Hummingbird-adapted species occur at lower latitudes and lower elevations than bee-adapted species, resulting in a difference in their environmental niche. Hummingbird-adapted species seem to evolve in lineages that previously adapted to lower latitudes and elevations, since bee-adapted species sister to hummingbird-adapted species also occur in these regions and habitats. Sister species pairs – regardless of whether they differ in pollinator – show relatively little geographic range overlap.</p> <p>Conclusions: Adaptation to a novel pollinator may often occur in geographic and ecological isolation from ancestral populations. The ability of a given lineage to adapt to novel pollinators may critically depend on its ability to colonize regions and habitats associated with novel pollinator communities.</p>
What Caused the 2020 Record-Breaking Summer Marine Heatwaves in the Western North Pacific?
<p>The numerical results of tropical oceans with SST anomalies in the summer of 2020. There are five files include one control file and four tropical ocean files. </p>
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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.