Trees show higher resilience than herbs under phosphorus deficit induced by 12-year simulated acid rain

IF 4.3 2区 环境科学与生态学 Q1 ECOLOGY Ecology Pub Date : 2025-04-10 DOI:10.1002/ecy.70071
Guangcan Yu, Mianhai Zheng, Ying-Ping Wang, Mengxiao Yu, Jun Jiang, Enqing Hou, Nannan Cao, Shu Ye, Songjia Chen, Jingtao Wu, Fengcai Liu, Linhua Wang, Shuo Zhang, Pingping Xu, Deqiang Zhang, Junhua Yan
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Abstract

Acid rain, with 60% deposition in Asia, may exacerbate plant phosphorus (P) limitation; however, its long-term effects on different plant life-forms remain largely undetermined. Understanding these effects is essential for predicting ecosystem resilience and promoting forest health under environmental change. Herein, we investigated the P status in two tree and two herb species and their rhizosphere soils after 12 years of acid treatment at three pH levels (pH: 4.0, 3.5, and 3.0) in a tropical forest in Southern China. We found that leaf, litter, and root P; leaf N and P resorption efficiency; and their ratios remained stable in trees; however, herb leaf and litter P levels declined. Acid addition reduced inorganic P in tree rhizosphere soil and inorganic and organic P in herb rhizosphere soil. Rhizosphere soil P fractions were more regulated by soil physicochemical properties and less regulated by microbial community in trees than in herbs. Under long-term simulated acid rain, stable tree P status benefited from soil inorganic P depletion, and herbs partially met their P requirements via biological mineralization of soil organic P. These distinct P-associated responses and acquisition strategies provide insights into safeguarding forest health among plants of different functional types under long-term acid rain events.

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在12年模拟酸雨造成的磷亏缺下,树木表现出比草本植物更高的恢复力
亚洲地区60%的酸雨沉降可能加剧植物磷(P)的限制;然而,它对不同植物生命形式的长期影响在很大程度上仍未确定。了解这些影响对于预测环境变化下的生态系统恢复力和促进森林健康至关重要。本文研究了中国南方热带森林中2种乔木和2种草本植物及其根际土壤在pH值为4.0、3.5和3.0的情况下,经过12年的酸处理后的磷含量状况。我们发现叶片、凋落物和根P;叶片氮磷吸收效率;它们的比例在树木中保持稳定;草本植物叶片和凋落物磷含量下降。酸的添加降低了乔木根际土壤的无机磷和草本根际土壤的无机磷和有机磷。根际土壤磷组分受土壤理化性质的调控较大,受微生物群落的调控较小。长期模拟酸雨条件下,树木磷的稳定状态得益于土壤无机磷的耗竭,而草本植物则通过土壤有机磷的生物矿化来满足部分磷需求。这些不同的磷相关响应和获取策略为长期酸雨条件下不同功能类型植物对森林健康的保障提供了依据。
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来源期刊
Ecology
Ecology 环境科学-生态学
CiteScore
8.30
自引率
2.10%
发文量
332
审稿时长
3 months
期刊介绍: Ecology publishes articles that report on the basic elements of ecological research. Emphasis is placed on concise, clear articles documenting important ecological phenomena. The journal publishes a broad array of research that includes a rapidly expanding envelope of subject matter, techniques, approaches, and concepts: paleoecology through present-day phenomena; evolutionary, population, physiological, community, and ecosystem ecology, as well as biogeochemistry; inclusive of descriptive, comparative, experimental, mathematical, statistical, and interdisciplinary approaches.
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