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4,356 results for “RED”
FIGURE 3 in How many valid Pleurosicya (Teleostei: Gobiidae) species are known from the Red Sea?
FIGURE 3. Pleurosicya mossambica, SMNH-P 9017, Egypt, Gulf of Aqaba, Red Sea. From Goren (1984).
FIG. 4 in Phylogenetic analysis of the red algal tribe Ceramieae reveals multiple morphological homoplasies but defines new genera
FIG. 4. — Reconstruction of character evolution by mapping morphological characters onto the Bayesian tree inferred on rbcL gene. Geographical distribution is given for all the samples. Values at the nodes represent posterior probability, values <0.8 are not shown. Abbreviations: See Figure 3.
Figure 4 in A review of the Australasian genus Pseudophycis (Gadiformes: Moridae), redescribing its four species and resurrecting the name Physiculus palmatus Klunzinger, 1872, for the Australian Red Cod
Figure 4. Plots of proportional measurements (% SL) against standard lengths for non-type specimens of Pseudophycis palmata, P. barbata and holotype of P. palmata. A, caudal peduncle length; B, interorbital width; C, barbel length; D, pelvic fin length.
Figure 3 in A review of the Australasian genus Pseudophycis (Gadiformes: Moridae), redescribing its four species and resurrecting the name Physiculus palmatus Klunzinger, 1872, for the Australian Red Cod
Figure 3. Collection localities for specimens of Pseudophycis spp. in museums. A, P. bachus, green and P. palmata, orange; B, P. barbata, blue; C, P. breviuscula, red.
Figure 7. Pseudophycis barbata. A, NMNZ P.037124, 450 in A review of the Australasian genus Pseudophycis (Gadiformes: Moridae), redescribing its four species and resurrecting the name Physiculus palmatus Klunzinger, 1872, for the Australian Red Cod
Figure 7. Pseudophycis barbata. A, NMNZ P.037124, 450 mm SL, Bay of Plenty, east of north-east point, North Island, New Zealand (photograph C. Struthers, NMNZ); B, BMNH 1863.1.15.38, holotype of Pseudophycis barbata, 394 mm SL, Victoria, South Australia (photograph © The Trustees of the Natural History Museum, London).
Fig. 7 in Red wood Ants (Formica rufa-group) prefer mature pine forests in Variscan granite environments (Hymenoptera: Formicidae)
Fig. 7 – Density plots of RWA nests in a, MG, b, FB study area and c, tectonic stress directions in the study areas (yellow; © World Stress Map 2016; Heidbach et al. 2016).
JULES-RED simulation outputs and evaluation at Harwood Forest, UK
<p>Repository contains JULES-RED simulation output and processed observations at a mature Sitka spruce plantation (Harwood Forest, Northumberland, UK). Additionally, we have included python files used to process the data, these files may have incomplete comments/documentation. To fully compile please see the JULES rose suite (u-cn548) at the Met Office code repository: code.metoffice.gov.uk. Access can be applied for at <a href="http://jules-lsm.github.io/access_req/JULES_access.html">http://jules-lsm.github.io/access_req/JULES_access.html</a>.</p>
Fig. 2 in Catalogue and red list of Acalypha L. (Euphorbiaceae) from South America
Fig. 2. Number of species of Acalypha L. in South America by country. In brackets: the number of endemic species in each country.
Fig. 1 in Asporychalasin, a bioactive cytochalasan with an unprecedented 6/6/11 skeleton from the Red Sea sediment Aspergillus oryzae
Fig. 1. Chemical structure of asporychalasin (1).
Fig. 5 in Asporychalasin, a bioactive cytochalasan with an unprecedented 6/6/11 skeleton from the Red Sea sediment Aspergillus oryzae
Fig. 5. Proposed biosynthetic pathway for asporychalasin.
Fig. 3 in Condensation derivatives of 4-isopropylbenzaldehyde with acetophenone from the red alga Laurencia tristicha
Fig. 3. Key NOESY correlations of compounds 3 and 4.
Fig. 5 in Condensation derivatives of 4-isopropylbenzaldehyde with acetophenone from the red alga Laurencia tristicha
Fig. 5. Plausible biosynthetic pathway of compounds 1–5.
Fig. 2 in Condensation derivatives of 4-isopropylbenzaldehyde with acetophenone from the red alga Laurencia tristicha
Fig. 2. Key COSY and HMBC correlations of compounds 1–4.
Fig. 1 in Condensation derivatives of 4-isopropylbenzaldehyde with acetophenone from the red alga Laurencia tristicha
Fig. 1. Structures of compounds 1–6.
Fig. 2 in Steroidal glycosides from the Vietnamese cultivar Cordyline fruticosa "Fairchild red"
Fig. 2. Structures of the known compounds 13 and 14.
Fig. 1 in Steroidal glycosides from the Vietnamese cultivar Cordyline fruticosa "Fairchild red"
Fig. 1. Structures of the previously undescribed compounds 1–12.
Cultivar-Specific Responses of Tomato Essential Oils to Tomato Red Spider Mite (Tetranychus evansi): Implications for Pest Management
<p>The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p>License: The dataset is made available under the Creative Commons Attribution 4.0 International License.The dataset contains comprehensive experimental data and analytical results from a study conducted to explore the interaction between tomato essential oils and the tomato red spider mite (<em>T. evansi</em>). The study involved essential oils extracted from seven distinct tomato accessions (<em>Solanum lycopersicum L.</em>), namely accessions 1 (money maker), 13 (marglobe), 51 (PI 134417), 162 (JKUAT 22/202183), 182 (JKUAT 19), 428 (LA 2185), and 460 (LO 3279). The dataset encompasses the following components:</p> <ol> <li><strong>Essential Oil Extraction Data:</strong> Details of the steam distillation process used to extract essential oils from each tomato accession, including extraction time and yield.</li> <li><strong>Spider Mite Response Data:</strong> Results from Y-tube olfactometer and glass slide bioassays measuring the response of <em>T. evansi</em> to essential oils from different accessions. Responses include attraction, repulsion, or neutrality.</li> <li><strong>Gas Chromatography/Mass Spectrometry (GC/MS) Analysis:</strong> Analytical data presenting the chemical composition of volatile compounds released by the essential oils. Quantitative and qualitative variations among accessions are documented, highlighting key compounds influencing mite behavior.</li> <li><strong>Statistical Analysis:</strong> Statistical tests conducted to assess significant differences in mite responses to various essential oil concentrations and accessions.</li> <li><strong>Visualizations:</strong> Graphs, charts, and figures representing mite behavior responses, essential oil composition variations, and concentration-related effects.</li> </ol> <p>The dataset contributes valuable information to the field of natural pest management and plant-arthropod interactions. Researchers, agronomists, and entomologists interested in understanding the potential of essential oils for pest control and the importance of phytochemical diversity in pest behavior modulation will find this dataset beneficial for further analysis and validation.</p> <p>By accessing this dataset, researchers can delve into the intricate relationship between tomato essential oils and the behavior of the tomato red spider mite, paving the way for innovative approaches to mitigate pest damage and enhance crop productivity.</p> <p> </p>
Red blood cell trapping using single-beam acoustic tweezers in the Rayleigh regime
<p>Here are the datasets and original code used for the title 'Red blood cell trapping using single-beam acoustic tweezers in the Rayleigh regime.'</p>
List of 131 harlequin toad species (in alphabetical order) with information on occurence, population status 2004 and 2022, threats, IUCN Red List status and contributing experts
<p><span>Biodiversity loss is extreme in amphibians. Despite ongoing conservation action, it is difficult to determine where we stand in overcoming their extinction crisis. Among the most threatened amphibians are the 131 Neotropical harlequin toads. Many of them declined since the 1980s with several considered possibly extinct. Recently, more than 30 species have been rediscovered, raising hope for a reversing trend in the amphibian extinction crisis. We use past and present data available for harlequin toads (<em>Atelopus</em>), to examine whether the amphibian extinction crisis is still in an emergency state. Since 2004 no species has improved its population status, suggesting that recovery efforts have not been successful. Threats include habitat change, pathogen spread and climate change. More mitigation strategies need implementation, especially habitat protection and disease management, combined with captive conservation breeding. With harlequin toads serving as a model, it is clear that the amphibian extinction crisis is still underway.</span></p>
The Correlation Between Red Cell Transfusion and Complications of Prematurity
ClinicalTrials.gov study NCT07123948. IPD Sharing: NO. Countries: 1. Publications: 0.
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)
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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.