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269 results for “Western Himalaya”
Data to Support Predictive Models for Detrital Titanite Provenance with application to the Nanga Parbat syntaxial massif, western Himalaya."
<p>The files published here are metadata that are being used to support a manuscript currently (Mar, 2024) undergoing final reviews in Journal of Geophysical Research: Earth Surface.</p> <p>The intention of these data and code is to support a publication that is about generating a predictive categorisation scheme for the mineral titanite.</p> <p>The code to generate the titanite classification schemes was created in Python3, using Jupyter Notebook. The files also provide more motivation for why a predictive categorisation scheme for the mineral titanite is desirable, and other similar context. Chiefly, the dataset and random forest models published here will allow us to trace titanite in detritus.</p> <p>For info on running Jupyter Notebook, please visit (<a href="https://jupyter-notebook-beginner-guide.readthedocs.io/en/latest/execute.html">https://jupyter-notebook-beginner-guide.readthedocs.io/en/latest/execute.html</a>) to seek instructions. We also provide a readme file with some instructions. If you get really stuck, just email the authors.</p> <p>Our Model can be compared to similar previously published works (e.g. <a href="https://doi.org/10.1111/ter.12574">https://doi.org/10.1111/ter.12574</a>). Model was trained using skikit-learn v1.41.</p> <p>The supplementary file "Table_S4_Merged.csv" was used to train and generate the model.</p> <p>Your unknowns must contain the correct elements and labelling for the code to successfully run, these details are provided in the code (Titanite_Random_Forest_Model1_Mar24.ipynb). A template is also provided for you to paste your unknown data into (titanite_data_template.csv)</p> <p>Any new published data are titanite compositional or isotopic data collected by LA-ICP-MS. Description of how those data were collected is given in "OSullivan_et_al_Supp..." file.</p> <p>Some of the data, information and code in this submission has been subject to change after journal review, this is a second version of this content.</p> <p>References for the dataset compilation are provided in File S3.</p> <p>If you have any queries contact:<br>Gary O'Sullivan, Trinity College Dublin</p>
Stress regimes in the Himalaya-Karakoram-Tibet, the western part of India-Eurasia collision: stress field implications based on focal mechanism solution data
<p>This dataset contains valuable information on earthquake events, including their location, magnitude, depth, and focal mechanism solutions. This README file provides detailed explanations of each header in the dataset, as well as information about the files included in the repository.<br><br><em>"Stress regimes in the Himalaya-Karakoram-Tibet, the western part of India-Eurasia collision: stress field implications based on focal mechanism solution data"</em> <strong>(Under Review)</strong><br> </p>
Figs 31–36 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 31–36. Alainites neeru sp. nov. 31–32. Paratype (AMC). 33–36. Holotype (AMC). 31. Tergalius I. 32. Tergalius IV. 33. Posterior margin of tergum IV denticulation. 34–35. Paraproct. 36. Closer view of paraproct.
Figs 27–30 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 27–30. Alainites neeru sp. nov., paratype (AMC), thorax and abdomen of larva. 27. Foreclaw. 28. Hindwing pad (pointed by arrow). 29. Tergal segments III–X. 30. Tergal segments VIII–X.
Figs 14–18 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 14–18. Alainites neeru sp. nov., paratype (AMC), mouthparts of larva. 14. Labium. 15. Glossae and paraglossae. 16. Closer view of labial palp segment III. 17. Maxilla. 18. Closer view of crown of maxilla.
Figs 19–21 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 19–21. Alainites neeru sp. nov., paratype (AMC), legs of larva. 19. Forefemur. 20. Middle femur. 21. Hind femur.
Figs 22–26 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 22–26. Alainites neeru sp. nov., paratype (AMC), legs of larva. 22. Foretibia and foretarsus. 23. Outer marginal setation of foretibia. 24. Inner marginal setation of foretibia. 25. Middle tibia and middle tarsus. 26. Hind tibia and hind tarsus.
Figs 7–13 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 7–13. Alainites neeru sp. nov. paratypes (AMC), mouthparts of larva. 7. Left mandible. 8. Right mandible. 9. Prostheca and incisor of left mandible. 10. Closer view of left mandible. 11–12. Prostheca and incisor of right mandible. 13. Prostheca of right mandible.
Figs 1–5 in First record of the genus Alainites Waltz & McCafferty, 1994 (Ephemeroptera, Baetidae) from India with the description of a new species from the North-western Himalayas
Figs 1–5. Alainites neeru sp. nov. 1. Holotype, ♀ (AMC), mature larva. 2–6. Paratype (AMC). 2. Immature larva. 3. Antenna. 4. Labrum. 5. Labrum, sub-marginal setae (arrows indicate 1+2 long, simple setae). 6. Setae of the ventral surface of the labrum.
Fig. 4 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas
Fig. 4. Ordination of 56 bird species on the first two canonical axes with biplot for key environmental variables derived from Euclidean distance. The ordination showed altitude, tree density, shrub density, canopy cover, and disturbance to be the environmental variables influencing distribution of bird in the study area.
Fig. 3 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas
Fig. 3. Species accumulation patterns of birds in five different habitat types of Sainj Valley, Himachal Pradesh. Estimated species richness Jackknife 1 is shown.
Fig. 1 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas
Fig. 1. Location map: a — location map of sampling sites in Sainj Valley of Western Himalayas; b — land use and land cover map of Sainj Valley-2010 (Jolli, 2014).
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>
Figures 9-16 in A new species of Choroterpes Eaton, 1881 (Ephemeroptera: Leptophlebiidae: Atalophlebiinae) from Western Himalaya, India
Figures 9-16. Larvae of Choroperpes (Choroterpes) girigangaensis sp. nov. 9. Maxilla; 10. Labium; 11. Foreleg; 12. Midleg; 13. Hindleg; 14. Hind tibia; 15. Hind tarsi. 16. Claw.
Figures 17-22 in A new species of Choroterpes Eaton, 1881 (Ephemeroptera: Leptophlebiidae: Atalophlebiinae) from Western Himalaya, India
Figures 17-22. Larvae of Choroperpes (Choroterpes) girigangaensis sp. nov. 17. Gill I; 18. Gill II; 19. Gill V; 20. Gill VI; 21. Gill VII; 22. Ventral view of segment VIII–X.
Figures 1-8 in A new species of Choroterpes Eaton, 1881 (Ephemeroptera: Leptophlebiidae: Atalophlebiinae) from Western Himalaya, India
Figures 1-8. Larvae of Choroperpes (Choroterpes) girigangaensis sp. nov. 1. Dorsal view; 2. Ventral view; 3. Labrum; 4. Labrum emargination; 5. Labrum emargination with unequal denticles 6. Hypopharynx; 7. Left mandible; 8. Right mandible.
Figure 1 in Pseudonapaeus purii (Ray, 1951), comb. nov., rediscovery of an endemic snail from western Himalaya (Gastropoda: Enidae)
Figure 1. Shell of Pseudonapaeus purii (H.S. Ray, 1951) (A). Holotype NZSI M.16063/2, (B). Sub-adult shell from Great Himalayan National Park (C). Original label of type specimens housed in Zoological Survey of India.
Figures 39-40 in A new record of Heptagenia (H.) quadripunctata Kluge, 1989 (Heptageniinae: Heptageniidae: Ephemeroptera) from the Western Himalaya, India
Figures 39-40. Sampling sites of H. (H.) quadripunctata 39. Shey village, Leh, Indus River, Indus Valley, 40. Phey village, Leh, Indus River, Indus Valley.
Figures 6-14 in A new record of Heptagenia (H.) quadripunctata Kluge, 1989 (Heptageniinae: Heptageniidae: Ephemeroptera) from the Western Himalaya, India
Figures 6-14. Larva ofH. (H.) quadripunctata 6. Lateral view of thorax; 7. Abdominal terga IV-V; 8. Abdominal terga VI-VIII with lateral setae; 9. Cerci; 10. Antennae; 11. Labrum; 12. Labrum closer view; 13. Hypopharynx; 14. Hypopharynx closer view.
Figures 32-38 in A new record of Heptagenia (H.) quadripunctata Kluge, 1989 (Heptageniinae: Heptageniidae: Ephemeroptera) from the Western Himalaya, India
Figures 32-38. Larva ofH. (H.) quadripunctata 32. Gill I; 33. Gill II; 34. Gill III; 35. Gill IV; 36. Gill V (lobe); 37. Gill VI (lobe); 38. Gill VII
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OpenNeuro
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