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269 results for “Western Himalaya”
FIGURE 54 in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 54. Scolytus major. Male: dorsal view A, lateral view B; female: dorsal view C, fronto-lateral view D.
FIGURE 66. A in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 66. A phylogenetic tree obtained from the NJ for the COX-1 genes of Himalayan Hypothenemus (in blue) and related species. Numbers at the branches represent bootstrap values.
FIGURE 57. A in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 57. A phylogenetic tree obtained from the NJ for the COX-1genes of Himalayan Scolytus (in blue) and related species. Numbers at the branches represent bootstrap values.
FIGURE 52. A in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 52. A phylogenetic tree obtained from the NJ for the COX-1 genes of Himalayan Polygraphus (in blue) and related species. Numbers at the branches represent bootstrap values.
FIGURE 8 in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 8. Cryphalus himalayensis sp. nov. Holotype female: dorsal view A, lateral view B, frons C; Allotype male: dorsal view D, ventral view E, frons F.
FIGURE 2 in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 2. Morphological terminology illustrated on lateral habitus of Cryphalus himalayensis sp. nov.
FIGURE 4 in A taxonomic monograph of subfamily Scolytinae (Coleoptera: Curculionidae) in the Western Himalaya
FIGURE 4. Pityophthorus chilgoza. Holotype female: dorsal view A, lateral view B. (Courtesy: Dr. Sarah M. Smith).
Data from: Noninvasive sampling reveals population genetic structure in the Royle's pika, Ochotona roylei, in the western Himalaya
Understanding population genetic structure of climate-sensitive herbivore species is important as it provides useful insights on how shifts in environmental conditions can alter their distribution and abundance. Herbivore responses to the environment can have a strong indirect cascading effect on community structure. This is particularly important for Royle's pika (Lagomorpha: Ochotona roylei), a herbivorous talus-dwelling species in alpine ecosystem, which forms a major prey base for many carnivores in the Himalayan arc. In this study, we used seven polymorphic microsatellite loci to detect evidence for recent changes in genetic diversity and population structure in Royle's pika across five locations sampled between 8 km to 160 km apart in the western Himalaya. Using four clustering approaches, we found the presence of significant contemporary genetic structure in Royle's pika populations. The detected genetic structure could be primarily attributed to the landscape features in alpine habitat (e.g. wide lowland valleys, rivers) that may act as semi-permeable barriers to gene flow and distribution of food plants, which are key determinants in spatial distribution of herbivores. Pika showed low inbreeding coefficients (FIS) and a high level of pairwise relatedness for individuals within 1km suggesting low dispersal abilities of talus-dwelling pikas. We have found evidence of a recent population bottleneck, possibly due to effects of environmental disturbances (e.g. snow melting patterns or thermal stress). Our results reveal significant evidence of isolation by distance in genetic differentiation (FST range = 0.04−0.19). This is the first population genetics study on Royle's pika, which helps to address evolutionary consequences of climate change which are expected to significantly affect the distribution and population dynamics in this talus dwelling species.
FIGURE 3 in Rhododendron rawatii (Ericaceae), a new species from the Western Himalaya, India
FIGURE 3. Map of India (left lower side) and Uttarakhand state (representing locations of the habitat of R. rawatii recorded (left star type locality at Tungnath in Kedarnath Wildlife Sanctuary, Rudraprayag (R) district and right star enroute Chhipla–Kedar in Pithoragarh (P) district).
FIGURE 2. Rhododendron rawatii I. D. Rai & B. S in Rhododendron rawatii (Ericaceae), a new species from the Western Himalaya, India
FIGURE 2. Rhododendron rawatii I. D. Rai & B. S. Adhikari sp. nov. A. Flowering branch. B. Leaf: adaxial (left) and abaxial (right) surface. C. Flower with bracteoles. D. Androecium and gynoecium. E. Bract. F. Intact and dehisced capsules. G. Seeds (Illustration by IDR from type locality).
FIGURE 1. Rhododendron rawatii I. D. Rai & B. S in Rhododendron rawatii (Ericaceae), a new species from the Western Himalaya, India
FIGURE 1. Rhododendron rawatii I. D. Rai & B. S. Adhikari sp. nov. A. & B. Habit and habitat (flowering and vegetative stage). C.Leaf abaxial and adaxial surface. D. & E. Bark. F. Inflorescence. G. Flower. H. Stamen, calyx and bract. I. Basal part of the flower with calyx. J. Ovary, calyx and bracteoles. K. Flower bud. L. Leaf bud. M. & N. Mature and dehisced capsule. O. Seeds. (Photographs by IDR from type locality).
FIGURE 2 in Stipa klimesii (Poaceae), a new species from Western Himalayas (India)
FIGURE 2. Micromorphology of the callus and the dorsal surface of lemma (superior and lateral view) in Stipa klimesii (A–C), S. roborowskyi (D–F), and S. purpurea (G–I). Abbreviations: h – hook, l – long cell, mh – macrohair, p – prickle, s – silica body, c – cork cell. All hooks are orientated to the distal apex. Stipa klimesii – India, L. Klimeš 1155, 1156 (KRA), S. roborowskyi – China, Xinjiang, Qiemo Xian, Konqibulaker, 19 July 1988, S.G. Wu, H. Ohba, Y.H. Wu, Y. Fei s.n. (MOIS 4373370); S. purpurea – Kyrgyzstan, Naryn distr., Kei-Suu, 15 August 1986, Abdarova s.n. (FRU).
FIGURE 1 in Stipa klimesii (Poaceae), a new species from Western Himalayas (India)
FIGURE 1. Selected morphological characters of Stipa klimesii (from the type). A. Panicle. B. General habit. C. Awns with anthecia. D. Abaxial surface of leaves. E. Adaxial surface of leaves. F. Upper part of anthecium. G. Callus. Scale bars: A–C: 1 cm, G: 1 mm.
Figure 3 in An assessment of food habits and altitudinal distribution of the Asiatic black bear (Ursus thibetanus) in the Western Himalayas, Pakistan
Figure 3. Graphical representation of the signs of Asiatic black bear recorded at different elevations of Kaghan Valley, Pakistan.
Figure 2 in An assessment of food habits and altitudinal distribution of the Asiatic black bear (Ursus thibetanus) in the Western Himalayas, Pakistan
Figure 2. (1) Maize crop raided by a black bear in Malkandi reserve forest area, Kaghan Valley, Pakistan, 2013–2014. (2, 3) Photographs of scats found near the same forest area where bears raided maize crops.
Figure 1 in An assessment of food habits and altitudinal distribution of the Asiatic black bear (Ursus thibetanus) in the Western Himalayas, Pakistan
Figure 1. Map showing the study area of Kaghan Valley (Western Himalayas), a rich biodiversity spot of Mansehra district, Khyber Pakhtunkhwa province, Pakistan.
FIGURE 3 in Anemone pindariensis sp. nov., a new species from Pindari valley of the Western Himalaya, India
FIGURE 3. Anemone pindariensis: A.; B. Flower; D. Sepal; E. Abaxial side of the sepal; F. Adaxial side of the sepal; I. Staminodes; J. Densely hairy filaments of the stamens; K. Stamens; M. Carpels. Anemone rivularis: C. Flower; G.; H. Sepal; L. Stamen.
FIGURE 3 in Rottboellia husainii (Poaceae: Andropogoneae), a new grass species from Western Himalaya, India
FIGURE 3. Geographic distribution of Rottboellia husainii in Ramban district, Jammu and Kashmir, India, represented by red circle.
FIGURE 2. A. Culm and leaf sheath. B. Ligule. C in Rottboellia husainii (Poaceae: Andropogoneae), a new grass species from Western Himalaya, India
FIGURE 2. A. Culm and leaf sheath. B. Ligule. C. Nodes of the culm. D. Inflorescence. E–F. Pair of spikelets. G. Sessile spikelet, adaxial view. H. Sessile spikelet, abaxial view. I. Pedicel. J. Lower glume of sessile spikelet. K. Upper glume of sessile spikelet. L. Joint (internode). M. Upper lemma. N. Palea. O. Anthers.
FIGURE 1 in Rottboellia husainii (Poaceae: Andropogoneae), a new grass species from Western Himalaya, India
FIGURE 1. Rottboellia husainii sp. nov. A. Habit. B. Culm and leaf sheath. C. Ligule. D. Nodes of the culm and leaf sheath. E–F. Pair of spikelets. G. Sessile spikelet, adaxial view. H. Sessile spikelet, abaxial view; I. Joint (internode). J. Pedicel. K. Lower glume of sessile spikelet. L. Upper glume of sessile spikelet. M. Upper lemma; N. Palea. O. Anthers.
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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)
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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.