Affiliation:
1. Bioinformatics Center, Forest Research Institute, Dehradun 248006, Uttarakhand, India
2. Eilat Campus, Ben Gurion University of the Negev, P.O. Box 272, Eilat 881020, Israel
Abstract
The western Himalayan region is a biodiversity hotspot. Although much of the flora and fauna has been documented, there are very few studies on fungal diversity. We present the statistical analyses of the sample collections from the last 150 years of data in the fungarium of the Forest Research Institute. We found that the host tree species—pine, oak, deodar, and spruce, had very high Shannon diversity (SD) and species richness (SR), while Dalbergia and Rhododendron had moderate to low SD and SR values; although sal occurs at lower altitudes, it has high SD and SR values. Among fungal families, the highest SD and SR value was found in Polyporaceae. Hymenochaetaceae, Peniophoraceae, Coleosporiaceae, and Stereaceae also showed SD with moderate SR. Fomitopsidaceae, Cronartiaceae, Ganodermataceae, and Thelephoraceae have low biodiversity and species. Thelephoraceae are distributed above 2000 m altitude, and Ganodermataceae and Hymenochaetaceae have wider distribution ranges, namely, 0–3500 m and 0–5000 m, respectively. The Polyporaceae show diverse variations in species distribution and occur between 0 and 4500 m; Coleosporiaceae and Cronartiaceae around 2000 m; Stereaceae, Meruliaceae, Peniophoraceae, and Fomitopsidaceae occur between 1700 and 1800 m, with all Stereaceae and Fomitopsidaceae having different distribution ranges of up to 5000 m. We found that areas with relatively low rainfall had lower species richness, and vice versa, and that high solar radiation negatively affected fungal density and SR, as observed in the distribution of Thelephoraceae. While families with high SD and SR values such as Polyporaceae were found under relatively high rainfall, moderate solar radiation, and high temperatures. Similar studies need to be undertaken in other parts of the Himalayas and the importance of fungi in ethnobotany needs to be understood to ensure sustainable use.
Subject
Nature and Landscape Conservation,Agricultural and Biological Sciences (miscellaneous),Ecological Modeling,Ecology
Reference42 articles.
1. Cenozoic evolution of geo-biodiversity in the Tibeto-Himalayan region;Mosbrugger;Mountains, Climate, and Biodiversity,2018
2. 200 Years of Research on Himalayan Biodiversity: Trends, Gaps, and Policy Implications;Rana;Front. Ecol. Evol.,2021
3. Biodiversity hotspots for conservation priorities;Myers;Nature,2000
4. Negi, G.C.S., and Rawal, R.S. (2019). Himalayan Biodiversity in the Face of Climate Change, Springer.
5. Mapping biodiversity conservation priorities for threatened plants of Indian Himalayan Region;Mehta;Biodivers. Conserv.,2023
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