Jia Xin Liao, Pui San So, Sanandam Bordoloi, De Nian Li, Hao Ran Yuan, Yong Chen, Li Qing Xin
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However, the carbon content of <i>S. arboricola</i> increased by 57% in peanut shell BC-amended soil, suggesting that <i>S. arboricola</i> has a higher tolerance for soil salinity. Wood BC-amended soil led to better stomatal conductance (g<sub>s</sub>) and leaf area index (LAI) of both <i>R. tomentosa</i> and <i>C. edithiae</i> due to the higher water retention in the soil (22.68% and 20.79%). This illustrated that a higher amount of water retention brought by wood BC with a great amount of pore volume might be the limited factor for plant growth. The relationship between g<sub>s</sub> and LAI suggested that g<sub>s</sub> would not increase when LAI reached beyond 3. Moreover, wood and peanut shell BC caused a negative relationship between soil organic carbon and plant carbon content, suggesting that plants consume more carbon from the soil to store it in the plant. 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引用次数: 0
摘要
在土壤中施用生物炭(BC)对植物生长有积极影响,尤其是在农业区的疏松土壤中。然而,生物炭类型如何影响非作物物种的植物表现以及土壤-植物碳关系尚不清楚。我们选择了五种不同的生物碳类型和三种植物物种,研究植物性能和土壤-植物碳关系对生物碳影响的反应。结果表明,花生壳BC会导致R. tomentosa和C. edithiae死亡,原因是较高的土壤电导率(2001.7和976.3 µS cm-1)导致养分吸收减少。然而,在添加了花生壳萃取物的土壤中,箭毒草的碳含量增加了 57%,这表明箭毒草对土壤盐分有更高的耐受性。木质 BC 改良土壤能提高 R. tomentosa 和 C. edithiae 的气孔导度(gs)和叶面积指数(LAI),这是因为土壤的保水率较高(22.68% 和 20.79%)。这说明孔隙度大的木材 BC 带来的较高保水能力可能是植物生长的限制因素。gs 与 LAI 的关系表明,当 LAI 超过 3 时,gs 不会增加。此外,木质 BC 和花生壳 BC 导致土壤有机碳与植物碳含量之间呈负相关,表明植物从土壤中消耗了更多的碳以将其储存在植物体内。总之,建议使用木材BC促进R.tomentosa和C.edithiae的植物生长,使用花生壳BC促进S.arboricola的碳储存。
Plant performance and soil–plant carbon relationship response to different biochar types
Biochar (BC) applications in soil has positive effects on plant performance, particularly for loose soil in agricultural context. However, how biochar types affect plant performance of non-crop species and soil–plant carbon relationships is not clear. We selected five different BC types and three plant species to investigate the responses of plant performance and the soil–plant carbon relationship to BC effects. The result demonstrated that peanut shell BC led to the death of both R. tomentosa and C. edithiae, due to a reduction in nutrient uptake caused by higher soil electricity conductivity (2001.7 and 976.3 µS cm−1). However, the carbon content of S. arboricola increased by 57% in peanut shell BC-amended soil, suggesting that S. arboricola has a higher tolerance for soil salinity. Wood BC-amended soil led to better stomatal conductance (gs) and leaf area index (LAI) of both R. tomentosa and C. edithiae due to the higher water retention in the soil (22.68% and 20.79%). This illustrated that a higher amount of water retention brought by wood BC with a great amount of pore volume might be the limited factor for plant growth. The relationship between gs and LAI suggested that gs would not increase when LAI reached beyond 3. Moreover, wood and peanut shell BC caused a negative relationship between soil organic carbon and plant carbon content, suggesting that plants consume more carbon from the soil to store it in the plant. Overall, wood BC is recommended for plant growth of R. tomentosa and C. edithiae, and peanut shell BC is suggested for S. arboricola carbon storage.
期刊介绍:
Biochar stands as a distinguished academic journal delving into multidisciplinary subjects such as agronomy, environmental science, and materials science. Its pages showcase innovative articles spanning the preparation and processing of biochar, exploring its diverse applications, including but not limited to bioenergy production, biochar-based materials for environmental use, soil enhancement, climate change mitigation, contaminated-environment remediation, water purification, new analytical techniques, life cycle assessment, and crucially, rural and regional development. Biochar publishes various article types, including reviews, original research, rapid reports, commentaries, and perspectives, with the overarching goal of reporting significant research achievements, critical reviews fostering a deeper mechanistic understanding of the science, and facilitating academic exchange to drive scientific and technological development.