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Molecular Soil Biology, 2026, Vol. 17, No. 4
Received: 11 Jul., 2026 Accepted: 15 Aug., 2026 Published: 28 Aug., 2026
Continuous cropping of Atractylodes macrocephala has become a major constraint limiting sustainable production due to soil fertility degradation, nutrient imbalance, and rhizosphere ecological deterioration. This review summarizes the characteristics of soil fertility changes under continuous cropping systems of A. macrocephala, focusing on alterations in soil physicochemical properties, nutrient availability, and biological functions. Continuous cultivation can induce soil acidification, organic matter depletion, structural deterioration, and reduced nutrient supply capacity. Meanwhile, long-term cropping disrupts nitrogen, phosphorus, and potassium cycling, alters microbial community composition, decreases beneficial microorganisms, and enhances the accumulation of autotoxic compounds, thereby accelerating soil degradation and the development of continuous cropping obstacles. The mechanisms underlying soil fertility decline are discussed from the perspectives of nutrient imbalance, microbial dysbiosis, and rhizosphere ecological interactions. Furthermore, potential mitigation strategies, including crop rotation, organic amendments, bio-organic fertilizers, microbial inoculation, and intelligent soil fertility management, are reviewed. A case study approach is proposed to evaluate soil fertility dynamics under different continuous cropping years and assess improvement strategies. This review provides theoretical insights for understanding soil degradation mechanisms and developing sustainable soil management practices for Atractylodes macrocephala production.
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