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589 results for “Vascular Plants”
Figure 10 from: Saarela JM, Sokoloff PC, Gillespie LJ, Bull RD, Bennett BA, Ponomarenko S (2020) Vascular plants of Victoria Island (Northwest Territories and Nunavut, Canada): a specimen-based study of an Arctic flora. PhytoKeys 141: 1-330. https://doi.org/10.3897/phytokeys.141.48810
Figure 10 Species distribution maps. Juncaceae: AJuncus arcticus subsp. arcticusBJuncus arcticus subsp. alaskanusCJuncus biglumisDJuncus leucochlamysEJuncus triglumis subsp. albescensFLuzula confusaGLuzula nivalisHLuzula wahlenbergii.
Figure 11 from: Saarela JM, Sokoloff PC, Gillespie LJ, Bull RD, Bennett BA, Ponomarenko S (2020) Vascular plants of Victoria Island (Northwest Territories and Nunavut, Canada): a specimen-based study of an Arctic flora. PhytoKeys 141: 1-330. https://doi.org/10.3897/phytokeys.141.48810
Figure 11 AJuncus biglumis habit, Minto Inlet, NT, 22 July 2010 BJuncus leucochlamys habit, Gillespie et al. 9901CJuncus triglumis subsp. albescens habit, Gillespie et al. 9859DLuzula nivalis inflorescence (left) and habit (right), Gillespie et al. 9667. Photos by J.M. Saarela.
Figure 13 from: Saarela JM, Sokoloff PC, Gillespie LJ, Bull RD, Bennett BA, Ponomarenko S (2020) Vascular plants of Victoria Island (Northwest Territories and Nunavut, Canada): a specimen-based study of an Arctic flora. PhytoKeys 141: 1-330. https://doi.org/10.3897/phytokeys.141.48810
Figure 13 ACarex aquatilis subsp. stans habit, 18 July 2010 BCarex atrofusca habit, head of Minto Inlet, 25 July 2010 CCarex borealipolaris inflorescence, Gillespie et al. 9900DCarex borealipolaris habit, Gillespie et al. 9900ECarex fuliginosa subsp. misandra habit, Kuujjua River, NT, 18 July 2010. Photos by J.M. Saarela.
Figure 1 from: Saarela JM, Sokoloff PC, Gillespie LJ, Bull RD, Bennett BA, Ponomarenko S (2020) Vascular plants of Victoria Island (Northwest Territories and Nunavut, Canada): a specimen-based study of an Arctic flora. PhytoKeys 141: 1-330. https://doi.org/10.3897/phytokeys.141.48810
Figure 1 Map of Victoria Island showing locations of named places referred to in the current study. Inset: map of Canada showing the location of Victoria Island in the western Canadian Arctic Archipelago.
Supplementary data to Geographic patterns of vascular plant diversity and endemism using different taxonomic and spatial units
<p>The zip file includes a series of 72 raster maps in ascii format depicting the spatial distribution of the geographic boundaries of Chile for three biodiversity indices, four spatial resolutions and three taxonomic units based on both specimen data and species distribution models. Filenames of maps generated with species distribution models are prefixed with "SDM". Otherwise, all maps were named using the following codes for biodiversity indices, spatial resolutions and taxonomic units.</p> <p><strong>Biodiversity indices</strong>:</p> <p>TR: Taxon Richness</p> <p>WE: Weighted Endemism</p> <p>TT: Taxon Turnover</p> <p><strong>Spatial resolutions</strong>:</p> <p>100km, 75km, 50km and 25km on a side of a grid-cell</p> <p><strong>Taxonomic units</strong>:</p> <p>SP: Species</p> <p>GEN: Genus</p> <p>OTU: Operational Taxonomic Units</p>
Supplementary material 2 from: Baasanmunkh S, Urgamal M, Oyuntsetseg B, Sukhorukov AP, Tsegmed Z, Son DC, Erst A, Oyundelger K, Kechaykin AA, Norris J, Kosachev P, Ma J-S, Chang KS, Choi HJ (2022) Flora of Mongolia: annotated checklist of native vascular plants. PhytoKeys 192: 63-169. https://doi.org/10.3897/phytokeys.192.79702
Appendix 2
Supplementary material 1 from: Baasanmunkh S, Urgamal M, Oyuntsetseg B, Sukhorukov AP, Tsegmed Z, Son DC, Erst A, Oyundelger K, Kechaykin AA, Norris J, Kosachev P, Ma J-S, Chang KS, Choi HJ (2022) Flora of Mongolia: annotated checklist of native vascular plants. PhytoKeys 192: 63-169. https://doi.org/10.3897/phytokeys.192.79702
Appendix 1
FIGURE 4 in Annotated checklist of the vascular plants of Mount Kenya, East Africa
FIGURE 4. Distribution characteristics of the vascular plants on Mount Kenya.
Sampling plot × species matrix from: Climate-driven elevational variation in range sizes of vascular plants in the central Himalayas: a supporting case for Rapoport's rule
<p>A fundamental yet controversial topic in biogeography is how and why species range sizes vary along spatial gradients. To advance our understanding of these questions and to provide insights into biological conservation, we assessed elevational variations in the range sizes of vascular plants with different life forms and biogeographical affinities and explored the main drivers underlying these variations in the longest valley in China's Himalayas, the Gyirong Valley. Elevational range sizes of vascular plants were documented in 96 sampling plots along an elevational gradient ranging from 1,800 to 5,400 m above sea level. We assessed the elevational variations in range size by averaging the range sizes of all recorded species within each sampling plot. We then related the range size to climate, disturbance, and the mid-domain effect, and explored the relative importance of these factors in explaining the range size variations using the Random Forest model. A total of 545 vascular plants were recorded in the sampling plots along the elevational gradient. Of these, 158, 387, 337, and 112 were woody, herbaceous, temperate, and tropical species, respectively. The range size of each group of vascular plants exhibited uniform increasing trends along the elevational gradient, which was consistent with the prediction of Rapoport's rule. Climate was the main driver of the increasing trends of vascular plant range sizes in the Gyirong Valley. The climate variability hypothesis and mean climate condition hypothesis could both explain the elevation-range size relationships. Our results reinforce the previous notion that Rapoport's rule applies to regions where the influence of climate is the most pronounced, and call for close attention to the impact of climate change to prevent species range contraction and even extinction due to global warming. </p>
Figure 3 from: Nualart N, Ibáñez N, Luque P, Pedrol J, Vilar L, Guàrdia R (2017) Dataset of herbarium specimens of threatened vascular plants in Catalonia. PhytoKeys 77: 41-62. https://doi.org/10.3897/phytokeys.77.11542
Figure 3 - Families with 18 or more specimens (number of the taxa in the upper axis and number of specimens in the lower axis).
Figure 6 from: Nualart N, Ibáñez N, Luque P, Pedrol J, Vilar L, Guàrdia R (2017) Dataset of herbarium specimens of threatened vascular plants in Catalonia. PhytoKeys 77: 41-62. https://doi.org/10.3897/phytokeys.77.11542
Figure 6 - Comparative map of the number of taxa of the dataset and that according to Sáez et al. (2010: 733). Gray color indicates that all the taxa cited in this book have a specimen in the herbaria studied; yellow-red color indicates that the dataset doesn't include all the taxa published in this book and green color indicates that there are more taxa in the dataset that those published in this book.
Fig. 1 in A considerable review on type specimens of Korean vascular plants in the Herbarium of the Komarov Botanical Institute (LE) Addition
Fig. 1. Type specimens of Korean vascular plants in the herbarium of the Komarov Botanical Institute. 1. Selliguea coraiensis Christ (LE01000272), 2. Acer triflorum Kom. (LE01005880), 3. Acer triflorum Kom. f. subcoriacea Kom. (LE01005883), 4. Acer tschonoskii Maxim. var. rubripes Kom. (LE01005892), 5. Dendropanax morbiferum H. Lév. (LE01007511), 6. Artemisia fauriei Nakai (LE01008378), 7. Artemisia feddei H. Lév. & Vaniot (LE01008391), 8. Artemisia hallaisanensis Nakai (LE01008385), 9. Inula taquetii H. Lév. (LE01009281), 10. Saussurea saxatilis Kom. (LE01008657), 11. Adenophora marsupiiflora (Schult.) Fisch. var. jaluensis Kom. (LE01008888), 12. Silene oldhamiana Miq. (LE01013488).
Figure 2 from: Kipkoech S, Melly DK, Watuma Mwema B, Mwachala G, Musili PM, Hu G, Wang Q (2019) Conservation priorities and distribution patterns of vascular plant species along environmental gradients in Aberdare ranges forest. PhytoKeys 131: 91-113. https://doi.org/10.3897/phytokeys.131.38124
Figure 2 Proportions of endemic and non-endemic plants species life forms. (E – endemics, NE – non endemics).
Figure 5 from: Martínez-Sagarra G, Devesa JA (2019) Vascular plants dataset of the herbarium (COFC) of the University of Cordoba, Spain. PhytoKeys 133: 77-94. https://doi.org/10.3897/phytokeys.133.37481
Figure 5 Number of specimens (orange), and specimens plus associated duplicates (black) collected between the years 1935 and 2018. The principal highlights are indicated, and the star marks the year of creation of COFC.
Figure 4 from: Martínez-Sagarra G, Devesa JA (2019) Vascular plants dataset of the herbarium (COFC) of the University of Cordoba, Spain. PhytoKeys 133: 77-94. https://doi.org/10.3897/phytokeys.133.37481
Figure 4 Geographical distribution (provincial representation) of specimens of the General collection in Spain. The star marks Cordoba province.
Figure 3 from: Martínez-Sagarra G, Devesa JA (2019) Vascular plants dataset of the herbarium (COFC) of the University of Cordoba, Spain. PhytoKeys 133: 77-94. https://doi.org/10.3897/phytokeys.133.37481
Figure 3 Genera with greatest number of specimens in the General collection (A). In blue, genera of Magnoliopsida (M); in green, genera of Liliopsida (L). Number of specimens collected for each genus plus associated duplicates (B).
Figure 1 from: Martínez-Sagarra G, Devesa JA (2019) Vascular plants dataset of the herbarium (COFC) of the University of Cordoba, Spain. PhytoKeys 133: 77-94. https://doi.org/10.3897/phytokeys.133.37481
Figure 1 Taxonomic coverage of the General collection dataset in terms of specimens (A). Number of species (brown), genera (yellow), and families (light blue) within each class (B).
Figure 2 from: Martínez-Sagarra G, Devesa JA (2019) Vascular plants dataset of the herbarium (COFC) of the University of Cordoba, Spain. PhytoKeys 133: 77-94. https://doi.org/10.3897/phytokeys.133.37481
Figure 2 Families with greater representation in the General collection. In blue, families of Magnoliopsida; in green, families of Liliopsida.
Interaction between biocrusts and vascular plants shape semiarid dryland multifunctionality
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Vascular Plants of Korup National Park (myspecies): Resource (248) DwCA
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