In Situ Improvement of Desert Sand and Plant Germination With Multiple Treatment of <scp>EICP</scp> Combined With <scp>ASKG</scp>

ABSTRACT 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 CaCO 3 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 CaCO 3 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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Publication Details

Journal
Land Degradation and Development
Published
2025-03-20
DOI
https://doi.org/10.1002/ldr.5589
Primary Topic
Microbial Applications in Construction Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

In Situ Improvement of Desert Sand and Plant Germination With Multiple Treatment of EICP Combined With ASKG

Danyi Shen, Zuoyong Li, Zhenyuan Liu, Chuangzhou Wu et al.
Land Degradation and Development
Microbial Applications in Construction Materials
article

In Situ Improvement of Desert Sand and Plant Germination With Multiple Treatment of EICP Combined With ASKG

Danyi Shen, Zuoyong Li, Zhenyuan Liu, Chuangzhou Wu, Shixia Zhang
article en

Abstract

ABSTRACT 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 CaCO 3 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 CaCO 3 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.

Land Degradation and DevelopmentVol. 36(11)
Zhejiang Ocean University (CN), Zhejiang University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 94%
Microbial Applications in Construction Materials
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