Moso bamboo (Phyllostachys edulis) expansion enhances soil pH and alters soil nutrients and microbial communities

Amid global environmental concerns, the issue of bamboo expansion has garnered significant attention due to its extensive and profound impacts on the ecosystems. Bamboo expansion occurs in native and introduced habitats worldwide, particularly in Asia. However, the effects of bamboo expansion on soi...

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Veröffentlicht in:The Science of the total environment 2024-02, Vol.912, p.169346-169346, Article 169346
Hauptverfasser: Wu, Yaoxing, Guo, Jiahuan, Tang, Zhiying, Wang, Tianxiang, Li, Wenting, Wang, Xiaorong, Cui, Hongxia, Hu, Xingyi, Qi, Lianghua
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container_start_page 169346
container_title The Science of the total environment
container_volume 912
creator Wu, Yaoxing
Guo, Jiahuan
Tang, Zhiying
Wang, Tianxiang
Li, Wenting
Wang, Xiaorong
Cui, Hongxia
Hu, Xingyi
Qi, Lianghua
description Amid global environmental concerns, the issue of bamboo expansion has garnered significant attention due to its extensive and profound impacts on the ecosystems. Bamboo expansion occurs in native and introduced habitats worldwide, particularly in Asia. However, the effects of bamboo expansion on soil pH, nutrient levels, and microbial communities are complex and vary across different environments. To address this knowledge gap, we conducted a meta-analysis with 2037 paired observations from 81 studies. The results showed that soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion. Notably, soil pH increased more in the coniferous forest with bamboo expansion than in the broadleaf forest. Soil pH progressively increased over time since the establishment of bamboo stands. The extent of soil pH elevation was significantly positively correlated with the proportion of bamboo within the forest stand and mean annual solar radiation. In contrast, it was significantly negatively correlated with the mean annual temperature. The elevation of pH is closely related to expansion stage and expanded forest type rather than primarily shaped by climatic factors across a large scale. We also found that bamboo expansion into coniferous forests brought about a notable 14.14 % reduction in total nitrogen (TN). Varied expansion stages resulted in TN reductions of 6.88 % and 7.99 % for mixed forests and bamboo stands, respectively, compared to native forests. Pure bamboo stands exhibited a remarkable 30.39 % increase in ammonium nitrogen and a significant 21.12 % decrease in nitrate nitrogen compared to their native counterparts. Furthermore, bamboo expansion contributed to heightened soil fungal diversity. Taken together, our findings highlight that bamboo expansion leads to an increase in soil pH and alters soil N components and fungal microbial communities, providing valuable insights for future ecological conservation and resource management. [Display omitted] •Global concerns drove bamboo's impact study on soil, nutrients, and microbiota.•Conducted meta-analysis to explore bamboo expansion effects.•Soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion.•Bamboo expansion reduced total nitrogen, increased ammonium, and decreased nitrate.•Bamboo expansion boosted soil fungi diversity, crucial for nuanced management.
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Bamboo expansion occurs in native and introduced habitats worldwide, particularly in Asia. However, the effects of bamboo expansion on soil pH, nutrient levels, and microbial communities are complex and vary across different environments. To address this knowledge gap, we conducted a meta-analysis with 2037 paired observations from 81 studies. The results showed that soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion. Notably, soil pH increased more in the coniferous forest with bamboo expansion than in the broadleaf forest. Soil pH progressively increased over time since the establishment of bamboo stands. The extent of soil pH elevation was significantly positively correlated with the proportion of bamboo within the forest stand and mean annual solar radiation. In contrast, it was significantly negatively correlated with the mean annual temperature. The elevation of pH is closely related to expansion stage and expanded forest type rather than primarily shaped by climatic factors across a large scale. We also found that bamboo expansion into coniferous forests brought about a notable 14.14 % reduction in total nitrogen (TN). Varied expansion stages resulted in TN reductions of 6.88 % and 7.99 % for mixed forests and bamboo stands, respectively, compared to native forests. Pure bamboo stands exhibited a remarkable 30.39 % increase in ammonium nitrogen and a significant 21.12 % decrease in nitrate nitrogen compared to their native counterparts. Furthermore, bamboo expansion contributed to heightened soil fungal diversity. Taken together, our findings highlight that bamboo expansion leads to an increase in soil pH and alters soil N components and fungal microbial communities, providing valuable insights for future ecological conservation and resource management. [Display omitted] •Global concerns drove bamboo's impact study on soil, nutrients, and microbiota.•Conducted meta-analysis to explore bamboo expansion effects.•Soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion.•Bamboo expansion reduced total nitrogen, increased ammonium, and decreased nitrate.•Bamboo expansion boosted soil fungi diversity, crucial for nuanced management.</description><identifier>ISSN: 0048-9697</identifier><identifier>EISSN: 1879-1026</identifier><identifier>DOI: 10.1016/j.scitotenv.2023.169346</identifier><identifier>PMID: 38097081</identifier><language>eng</language><publisher>Netherlands: Elsevier B.V</publisher><subject>ammonium nitrogen ; Asia ; Bamboo expansion ; bamboos ; coniferous forests ; deciduous forests ; environment ; forest stands ; Meta-analysis ; nitrate nitrogen ; Phyllostachys edulis ; resource management ; soil fungi ; Soil microbial communities ; Soil nutrients ; Soil pH ; solar radiation ; temperature ; total nitrogen</subject><ispartof>The Science of the total environment, 2024-02, Vol.912, p.169346-169346, Article 169346</ispartof><rights>2023 The Authors</rights><rights>Copyright © 2023. 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The elevation of pH is closely related to expansion stage and expanded forest type rather than primarily shaped by climatic factors across a large scale. We also found that bamboo expansion into coniferous forests brought about a notable 14.14 % reduction in total nitrogen (TN). Varied expansion stages resulted in TN reductions of 6.88 % and 7.99 % for mixed forests and bamboo stands, respectively, compared to native forests. Pure bamboo stands exhibited a remarkable 30.39 % increase in ammonium nitrogen and a significant 21.12 % decrease in nitrate nitrogen compared to their native counterparts. Furthermore, bamboo expansion contributed to heightened soil fungal diversity. Taken together, our findings highlight that bamboo expansion leads to an increase in soil pH and alters soil N components and fungal microbial communities, providing valuable insights for future ecological conservation and resource management. 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Bamboo expansion occurs in native and introduced habitats worldwide, particularly in Asia. However, the effects of bamboo expansion on soil pH, nutrient levels, and microbial communities are complex and vary across different environments. To address this knowledge gap, we conducted a meta-analysis with 2037 paired observations from 81 studies. The results showed that soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion. Notably, soil pH increased more in the coniferous forest with bamboo expansion than in the broadleaf forest. Soil pH progressively increased over time since the establishment of bamboo stands. The extent of soil pH elevation was significantly positively correlated with the proportion of bamboo within the forest stand and mean annual solar radiation. In contrast, it was significantly negatively correlated with the mean annual temperature. The elevation of pH is closely related to expansion stage and expanded forest type rather than primarily shaped by climatic factors across a large scale. We also found that bamboo expansion into coniferous forests brought about a notable 14.14 % reduction in total nitrogen (TN). Varied expansion stages resulted in TN reductions of 6.88 % and 7.99 % for mixed forests and bamboo stands, respectively, compared to native forests. Pure bamboo stands exhibited a remarkable 30.39 % increase in ammonium nitrogen and a significant 21.12 % decrease in nitrate nitrogen compared to their native counterparts. Furthermore, bamboo expansion contributed to heightened soil fungal diversity. Taken together, our findings highlight that bamboo expansion leads to an increase in soil pH and alters soil N components and fungal microbial communities, providing valuable insights for future ecological conservation and resource management. [Display omitted] •Global concerns drove bamboo's impact study on soil, nutrients, and microbiota.•Conducted meta-analysis to explore bamboo expansion effects.•Soil pH increased by 6.99 % (0-20 cm) and 4.49 % (20-40 cm) after bamboo expansion.•Bamboo expansion reduced total nitrogen, increased ammonium, and decreased nitrate.•Bamboo expansion boosted soil fungi diversity, crucial for nuanced management.</abstract><cop>Netherlands</cop><pub>Elsevier B.V</pub><pmid>38097081</pmid><doi>10.1016/j.scitotenv.2023.169346</doi><tpages>1</tpages><oa>free_for_read</oa></addata></record>
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subjects ammonium nitrogen
Asia
Bamboo expansion
bamboos
coniferous forests
deciduous forests
environment
forest stands
Meta-analysis
nitrate nitrogen
Phyllostachys edulis
resource management
soil fungi
Soil microbial communities
Soil nutrients
Soil pH
solar radiation
temperature
total nitrogen
title Moso bamboo (Phyllostachys edulis) expansion enhances soil pH and alters soil nutrients and microbial communities
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