Summary
This paper presents a conceptual framework linking plant–soil nutrient cycle synchrony—a principle derived from natural ecosystems—to the design and management of sustainable agricultural systems. By synthesising evidence on nutrient cycling dynamics, the authors identify management strategies that can simultaneously reduce agricultural greenhouse gas emissions and improve long-term soil productivity and carbon sequestration. The framework emphasises site-specific adaptation as essential for translating ecological principles into effective agronomic practice.
Regional applicability
The framework is likely applicable to United Kingdom farming conditions, particularly for temperate arable and mixed systems where synchronising plant demand with soil nutrient supply is feasible. Transferability will depend on soil type, climate, and cropping system specifics; practitioners will need to adapt recommendations to local pedoclimatic conditions as the authors emphasise.
Key measures
Greenhouse gas emissions, biomass production, soil carbon storage; conditions for success of nature-based management practices
Outcomes reported
The study synthesised evidence on how plant–soil nutrient cycling synchrony influences agricultural productivity and environmental outcomes. The framework identifies management strategies and conditions for nature-based practices to reduce greenhouse gas emissions, improve biomass production, and enhance soil carbon storage.
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