Integrated assessment of environmental risks during regenerative farming implementation on degraded soils: A methodological review
DOI:
https://doi.org/10.60923/issn.2281-4485/24671Keywords:
regenerative agriculture, environmental risks, soil health, integrated index, degraded soils, agroecosystems, ecological stabilityAbstract
This study systematically assesses soil degradation and environmental risks arising from agroecosystem transformation during the transition from intensive to regenerative agriculture. Amid climate change and declining fertility, regenerative practices effectively enhance soil organic carbon sequestration and stimulate microbial activity. However, the conversion phase involves non-linear, asymmetric restructuring of biogeochemical cycles, which can destabilize labile carbon pools and mobilize reactive soil compounds. The aim of this study was to develop a conceptual and methodological framework for the integrated evaluation of these multi-directional shifts. We propose the Regenerative Transition Safety Index (RTSI), which integrates three core domains: the Biological Functionality Index (BFI), the Carbon Stability Index (CSI), and the Ecotoxicological Load Index (ETI). Within this risk-sensitive module, positive contributions of microbial biomass, soil respiration, and enzymatic activity are balanced against negative pressures such as ionic stress, nitrogen imbalances, and heavy metal bioavailability in the rhizosphere. A five-level graded interpretation scale for the RTSI was established, defining threshold intervals based on the stability boundaries of soil ecosystems and the concept of the adaptive cycle. RTSI enables early detection of hidden ecological risks before irreversible changes occur, ensuring proactive management and long-term soil health during agroecosystem transformation.
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