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998 results for “Central Asia”
FIGURE 2 in Eutrema tianshanense (Brassicaceae), a new species from Tian Shan Mountains of central Asia
FIGURE 2. (a) Bayesian majority-rule consensus tree inferred from the data of combined five cpDNA markers. (b) Bayesian majorityrule consensus tree inferred from ITS data. Numbers above branches are Bayesian posterior possibilities, maximum likelihood bootstrap support values, and BEAST posterior possibilities; "-" represents less than 50%.
FIGURE 1 in Eutrema tianshanense (Brassicaceae), a new species from Tian Shan Mountains of central Asia
FIGURE 1. Geographical distribution of population samples of Eutrema edwardsii (P1, P6), E. heterophyllum (P7, P8), E. integrifolium (P4, P5), E. racemosum (P9, P11), E. schulzii (P10), and E. tianshanense (P2, P3).
FIGURE 1. A in Solenanthus strictissimus (Boraginaceae)-an overlooked mountain species from Central Asia
FIGURE 1. A. Nutlet of S. kokanicus, Komarov 7.7.1893, (LE). B. Nutlet of S. strictissimus, Ikonnikov 16552, 1.8.1964, (LE). C. Nutlet of S. stamineus, Schmieda 14.6.1974 (M).
FIGURE 15 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 15. Bayesian phylogenetic reconstruction of the 'Caloplaca' anularis group using the ITS DNA locus. Sequences from the Altai-Sayan region are in bold.
FIGURE 12 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 12. Rusavskia (A–C) and variability in Variospora sororicida (D–E). A, Rusavskia elegans (Vondrák 18104), large and small morphotypes included, both are distinct in ITS; B, Rusavskia sp. 1 (Vondrák 18102) with Xanthoria-like flat lobes; C, Rusavskia sp. 2 (Vondrák 18161) with appressed lobes to substrate; D, Variospora sororicida (Vondrák 18071) with strongly reduced thallus on Pyrenodesmia; E, V. sororicida (Vondrák 18680) with few distinct areoles, on Pyrenodesmia; F, V. sororicida with numerous areoles, not obviously lichenicolous (Vondrák 18223). All bars, 1 mm.
FIGURE 11 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 11. Bayesian phylogenetic reconstruction of Rusavskia using the ITS DNA locus. Sequences from the Altai-Sayan region are indicated by arrows.
FIGURE 6 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 6. Bayesian phylogenetic reconstruction of a part of the genus Caloplaca (sensu stricto) using the ITS DNA locus. The epilithic Caloplaca fluviatilis is unresolved in polytomy with epiphytic lineages of C. cerina and C. stillicidiorum.
FIGURE 9 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 9. Bayesian phylogenetic reconstruction of Rufoplaca using the ITS DNA locus. Sequences from the Altai-Sayan region are in grey squares.
FIGURE 7 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 7. 'Caloplaca' anularis group (A) and Pachypeltis (B–E). A, 'Caloplaca' cf. bohlinii (Vondrák 18251) distinguished from 'C.' anularis by orange thallus with more frequent apothecia; B, Pachypeltis insularis (Vondrák 10340); C, Pachypeltis intrudens (Vondrák 18059); D, Pachypeltis cf. pachythallina (large squamules) on Calogaya (Vondrák 12649); E, Pachypeltis phoenicopta (Vondrák 18695) having deep orange pycnidia contrasting with pale yellow colour of thallus; F, detail of areoles of P. phoenicopta (Vondrák 18695) showing patches of white pruina that gives the typical pale yellow colour to the thallus. All bars, 1 mm.
FIGURE 4 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 4. Species richness accumulation curves for localities in the four categories of habitats. A, all species included; B, only species recorded in a single category included.
FIGURE 14 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 14. Bayesian phylogenetic reconstruction of a part of Variospora using the ITS DNA locus. Sequences from the Altai-Sayan region are in bold.
FIGURE 3 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 3. Species and genera of Teloschistaceae recorded in southern Siberia sorted according to their preference to humidity (legend in the upper left corner) and altitude.
FIGURE 2 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 2. Classification within Teloschistaceae displayed on the single locus ITS tree (2372 sequences included, maximum likelihood method, branches with the bootstrap support ≥ 70% are thick). Genera and groups putatively on generic level are collapsed into single terminals. Groups occurring in southern Siberia are linked with red names on the right. Pale grey link: genera with 1–2 species; medium grey, 3–5 species; black, 6 and more species.
FIGURE 1 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 1. Sampling sites. Green-humid non-alpine, blue-humid alpine, orange-arid non-alpine, yellow-arid alpine. Numbers of sites correspond with Appendix 1.
FIGURE 10 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 10. Rufoplaca (A–E). A, Rufoplaca arenaria sensu lato (Vondrák 18371; on mineralized wood) with apothecia more red than orange; B, Rufoplaca subpallida sensu lato (Vondrák 9929) with a distinct grey thallus, brown-orange apothecial disc and pale orange apothecial margin; C, Rufoplaca sp. 1 (Vondrák 12663) with slight olive tinge in apothecial discs; D, Rufoplaca sp. 2 (Vondrák 9924) forming bleached necrosis on Acarospora sp.; E, Rufoplaca sp. 3 (Davydov 17245) with large apothecia and a yellow outer part of the true exciple. All bars, 1 mm.
FIGURE 5 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 5. Athallia (A), Caloplaca sensu stricto (B), Flavoplaca (C), Squamulea (D) and Xanthomendoza (E,F). A, Athallia sp. (Vondrák 18073); B, holotype of Caloplaca fluviatilis; C, Flavoplaca oasis (Vondrák 18222) with indistinct marginal thallus lobes (character typical for Mediterranean-European F. polycarpa); D, Squamulea sp. (Vondrák 18682) resembling small morphotypes of Squamulea irrubescens; E, Xanthomendoza trachyphylla, a common morphotype (Vondrák 18044); F, X. trachyphylla with pruinose thallus on limestone (Vondrák 18028). All bars, 1 mm.
FIGURE 8 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 8. Bayesian phylogenetic reconstruction in Pachypeltis using the ITS DNA locus. Sequences from the Altai-Sayan region are in bold.
FIGURE 16 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 16. 'Caloplaca' exsecuta (A, B), Xanthocarpia (C) and an unknown 'Caloplaca' (D). A, 'Caloplaca' exsecuta (Vondrák 11110) with yellow-orange discs; B, 'C.' exsecuta (Vondrák 11105) with ferrugineous red discs; C, Xanthocarpia sp. (Vondrák 18686) resembling the Mediterranean X. marmorata; D, unknown 'Caloplaca' with unresolved ITS position within Xanthorioidae (Vondrák 18687). All bars, 1 mm.
FIGURE 13 in The lichen family Teloschistaceae in the Altai-Sayan region (Central Asia)
FIGURE 13. Bayesian phylogenetic reconstruction employing the ITS DNA to show the relationship of Shackeltonia and 'Caloplaca' epithallina.
Data for Greenhouse gas budgets of Central and West Asia (2000-2020)
<p>The data and code provided are utilized to support the conclusions of "Greenhouse gas budgets of Central and West Asia (2000-2020): A significant net source to the atmosphere" (submitted). The dataset comprises the processed ensemble mean values at both national and regional scales. Please note that in the dataset, "NBP" represents the NBP fluxes from TRENDY v11 models, "Wetland CH4" represents the wetland CH4 emission estimates from Terrestrial Biosphere Models in the Global Methane Budget, "Natural Soil N2O" represents the natural soil N2O emissions as estimated by NMIP2 models, and "Inversions" represents the inversion fluxes for each GHG. More detailed information about the meaning and data sources of each sector can be found in the Methods section of the manuscript and in Supplementary Information S1.</p>
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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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.