IF 3.6 2区 农林科学 Q2 ENVIRONMENTAL SCIENCES
Zuoyong Li, Shixia Zhang, Chuangzhou Wu, Zhenyuan Liu, Danyi Shen
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引用次数: 0

摘要

荒漠化是一个全球性的环境问题,严重威胁着干旱地区生态系统的稳定和植被的恢复。本研究提出了一种结合蒿草胶(ASKG)和酶诱导碳酸盐降水(EICP)的多重处理策略,以加强风蚀控制和种子萌发。通过田间试验评估了这种方法的效果。结果表明,单一 EICP 处理可提高土壤保水性和表面强度。然而,高浓度 EICP 处理(≥ 0.2 mol/L 固结液,CS)会诱发盐胁迫,从而抑制植物存活。相反,当低浓度 EICP(0.1 摩尔/升 CS)与 ASKG 结合使用时,可形成稳定的结壳,提高表面强度和结壳厚度,同时防止植物生长早期结壳受损。添加 1.0 g/L ASKG 后,风蚀深度降低了 67%,平均含水量提高到 7.4%,种子发芽率提高,显示出较强的生态兼容性和长期稳定性。此外,第二次 EICP 处理通过添加 CaCO3 沉淀优化了土壤孔隙结构,使平均含水量提高到 10.6%,表面强度提高了 114.5%。微观结构分析表明,ASKG 在 CaCO3 晶体周围形成薄膜或网状结构,增强了土壤的抗风蚀能力和保水性。总之,研究结果表明,EICP 结合 ASKG 的多重处理策略成功克服了传统高浓度 EICP 的生态限制,为沙漠地区的风蚀控制和植被恢复提供了一种可持续的解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
In Situ Improvement of Desert Sand and Plant Germination With Multiple Treatment of EICP Combined With ASKG
Desertification is a global environmental issue that significantly threatens ecosystem stability and vegetation restoration in arid regions. This study proposes a multiple treatment strategy combining Artemisia sphaerocephala Krasch. gum (ASKG) with Enzyme-Induced Carbonate Precipitation (EICP) to enhance wind erosion control and seed germination. The effects of this approach were evaluated through field experiments. The results showed that single EICP treatment improved soil water retention and surface strength. However, high-concentration EICP treatment (≥ 0.2 mol/L Cementation Solution, CS) induced salt stress, which suppressed plant survival. In contrast, when low-concentration EICP (0.1 mol/L CS) was combined with ASKG, a stable crust formed, improving surface strength and crust thickness, while preventing damage to the crust during early plant growth. The addition of 1.0 g/L ASKG reduced wind erosion depth by 67%, increased average moisture content to 7.4%, and promoted better seed germination, showing strong ecological compatibility and long-term stability. Furthermore, the second EICP treatment optimized the soil pore structure by adding CaCO3 precipitates, which increased average moisture content to 10.6% and increased surface strength by 114.5%. Microstructural analysis revealed that ASKG formed film or mesh structure around CaCO3 crystals, enhancing soil wind erosion resistance and water retention. Overall, the findings suggest that the multiple treatment strategy of EICP combined with ASKG successfully overcomes the ecological limitations of traditional high-concentration EICP, providing a sustainable solution for wind erosion control and vegetation restoration in desert areas.
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来源期刊
Land Degradation & Development
Land Degradation & Development 农林科学-环境科学
CiteScore
7.70
自引率
8.50%
发文量
379
审稿时长
5.5 months
期刊介绍: Land Degradation & Development is an international journal which seeks to promote rational study of the recognition, monitoring, control and rehabilitation of degradation in terrestrial environments. The journal focuses on: - what land degradation is; - what causes land degradation; - the impacts of land degradation - the scale of land degradation; - the history, current status or future trends of land degradation; - avoidance, mitigation and control of land degradation; - remedial actions to rehabilitate or restore degraded land; - sustainable land management.
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