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A stronger coordination of litter decomposability between leaves and fine roots for woody species in a warmer region

机译:温暖地区木本物种的叶片和细根之间的凋落物分解性更强的协调性

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Evaluating the effects of plant species traits on litter decomposition would increase our understanding of plant-soil feedbacks in forest ecosystems. Currently, an assessment of a possible coordination between leaf and root decomposition across different species is required. However, previous studies have generated conflicting results. We hypothesized that such inconsistencies may be attributed to differences in local climatic effects on the decomposition process. We focused on the linkages between leaf and fine-root decomposition of woody species in a warm-temperate forest, which have not been addressed in previous studies. We found a significant positive correlation between leaf and root decomposition, and this linkage may be attributed to a wider range of decomposition rates across the species in our study forest. Additionally, we combined our data with those of previous studies of woody species to infer a global linkage in the decomposition process between leaves and roots. We found a positive correlation in decomposition rates between leaves and roots at the global scale, as well as a relatively strong correlation in warmer regions. These results support the importance of litter quality on biogeochemical processes and suggest that synergetic interactions between climate and plant communities could be amplified in a warmer future.
机译:评估植物物种性状对凋落物分解的影响将增加我们对森林生态系统中植物-土壤反馈的理解。当前,需要评估跨不同物种的叶和根分解之间可能的协调。但是,先前的研究产生了矛盾的结果。我们假设这种不一致可能是由于分解过程中局部气候影响的差异所致。我们着重研究了温带森林中木本植物的叶片与细根分解之间的联系,而先前的研究并未解决这些联系。我们发现叶片和根的分解之间存在显着的正相关性,这种联系可能归因于我们研究森林中整个物种的分解速率范围更大。此外,我们将我们的数据与先前对木本物种的研究相结合,以推断叶与根之间分解过程中的全局联系。我们发现在全球范围内,叶和根之间的分解速率呈正相关,而在较暖的地区则具有相对强的相关性。这些结果支持了凋落物质量对生物地球化学过程的重要性,并暗示气候和植物群落之间的协同相互作用可以在更温暖的未来得到加强。

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