Optimized organic-inorganic fertilization enhances soil carbon sequestration and wheat productivity

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Optimized organic–inorganic fertilization integrates the benefits of organic amendments with balanced mineral nutrients to improve soil health and wheat productivity simultaneously. This approach enhances soil carbon sequestration by increasing organic matter inputs, stabilizing carbon within soil aggregates, and stimulating beneficial microbial activity that promotes carbon retention. Improved nutrient synchronization boosts nitrogen use efficiency, supports root development, and enhances soil structure, leading to better water retention and reduced nutrient losses. As a result, wheat crops exhibit higher biomass accumulation, improved grain yield, and greater resilience to environmental stresses. Overall, optimized organic–inorganic fertilization represents a sustainable strategy to enhance long-term soil fertility, mitigate climate change through carbon storage, and ensure stable wheat production in intensive agroecosystems.

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#SoilCarbonSequestration #WheatProductivity #IntegratedNutrientManagement #OrganicInorganicFertilization #SoilHealth #SustainableAgriculture #ClimateSmartFarming #CarbonFarming #Agroecosystems #WorldResearchAwards

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