Nano-Hydroxyapatite Improves Drought Resilience in Soybean: Coordinated Physiological Adaptation and Soil Phosphorus Management for Sustainable Cropping Systems

IF 2.9 Q1 AGRICULTURE, MULTIDISCIPLINARY
Tianyu Zhang, Wenxuan Zhang, Qile Fang, Yungui Li, Zihao Zhao, Chuanxin Ma, Yuan Gao and Qingqing Li*, 
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Abstract

Under global warming scenarios, where drought and water scarcity are becoming more prevalent, this study investigated the efficacy of the nanophosphorus material (n-P) in enhancing soybean resilience under soil water restriction. Compared to conventional ionic phosphate fertilizer (i-P), n-P application significantly improved soybean growth under water-limited conditions, achieving a near-normal growth status. The n-P treatments increased plant fresh weight by 21.2–30.2% relative to i-P, demonstrating superior growth promotion. Physiological analysis revealed that n-P enhanced stress adaptation through the modulation of antioxidant enzyme activities, indicating improved oxidative stress management. Importantly, n-P application boosted reproductive success with 62.0% higher pod fresh weight and 21.5% increased total protein content compared to i-P. Postharvest soil analysis showed additional benefits of n-P fertilization, including 69% lower residual Olsen-P and ameliorated soil acidification compared with the i-P group. These findings provide mechanistic insights into nanofertilizer-mediated plant stress adaptation and highlight the dual benefits of n-P in sustainable crop production and soil health maintenance.

Abstract Image

纳米羟基磷灰石提高大豆抗旱性:可持续种植系统的协调生理适应和土壤磷管理
在干旱和缺水日益普遍的全球变暖背景下,本研究探讨了纳米磷材料(n-P)在土壤水分限制下提高大豆抗逆性的效果。与常规离子磷肥(i-P)相比,施氮磷显著改善了大豆在限水条件下的生长,达到了接近正常的生长状态。施氮磷处理植株鲜重比施磷处理提高21.2 ~ 30.2%,对植株生长有较好的促进作用。生理分析表明,n-P通过调节抗氧化酶活性增强胁迫适应能力,表明其改善了氧化应激管理。重要的是,施氮磷提高了荚果鲜重62.0%,总蛋白质含量比施氮磷提高了21.5%,提高了繁殖成功率。采后土壤分析显示,与施氮磷组相比,施氮磷能降低69%的奥尔森磷残留量,改善土壤酸化。这些发现为纳米肥料介导的植物逆境适应提供了机制见解,并强调了氮磷在作物可持续生产和土壤健康维护中的双重效益。
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CiteScore
2.80
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