Ahmed Nazir, Deng Lifang, Narejo Mehar-Un-Nisa, Baloch Iqra, Deng Lansheng, Chachar Sadaruddin, Li Yongquan, Li Juan, Bozdar Bilquees, Chachar Zaid, Hayat Faisal, Chachar Muzafaruddin, Gong Lin, Tu Panfeng
College of Horticulture and Landscape Architecture, Zhongkai University of Agriculture and Engineering, Guangzhou, Guangdong, China.
Institute of Biomass Engineering, South China Agricultural University, Guangzhou, China.
Front Plant Sci. 2024 Aug 16;15:1435086. doi: 10.3389/fpls.2024.1435086. eCollection 2024.
The integration of zinc nanoparticles (Zn NPs) with biochar offers a transformative approach to sustainable agriculture by enhancing plant productivity and human nutrition. This combination improves soil health, optimizes nutrient uptake, and increases resilience to environmental stressors, leading to superior crop performance. Our literature review shows that combining Zn NPs with biochar significantly boosts the crop nutrient composition, including proteins, vitamins, sugars, and secondary metabolites. This enhancement improves the plant tolerance to environmental challenges, crop quality, and shelf life. This technique addresses the global issue of Zn deficiency by biofortifying food crops with increased Zn levels, such as mung beans, lettuce, tomatoes, wheat, maize, rice, citrus, apples, and microgreens. Additionally, Zn NPs and biochar improve soil properties by enhancing water retention, cation exchange capacity (CEC), and microbial activity, making soils more fertile and productive. The porous structure of biochar facilitates the slow and sustained release of Zn, ensuring its bioavailability over extended periods and reducing the need for frequent fertilizer applications. This synergy promotes sustainable agricultural practices and reduces the environmental footprint of the traditional farming methods. However, potential ecological risks such as biomagnification, nanoparticle accumulation, and toxicity require careful consideration. Comprehensive risk assessments and management strategies are essential to ensure that agricultural benefits do not compromise the environmental or human health. Future research should focus on sustainable practices for deploying Zn NPs in agriculture, balancing food security and ecological integrity and positioning this approach as a viable solution for nutrient-efficient and sustainable agriculture.
将锌纳米颗粒(Zn NPs)与生物炭相结合,为可持续农业提供了一种变革性方法,可提高作物产量和改善人类营养状况。这种组合能改善土壤健康状况,优化养分吸收,并增强对环境压力的抵御能力,从而使作物表现更优。我们的文献综述表明,将Zn NPs与生物炭相结合能显著提高作物的营养成分,包括蛋白质、维生素、糖类和次生代谢产物。这种增强作用提高了植物对环境挑战的耐受性、作物品质和货架期。该技术通过对绿豆、生菜、番茄、小麦、玉米、水稻、柑橘、苹果和微型蔬菜等粮食作物进行生物强化,增加锌含量,从而解决全球缺锌问题。此外,Zn NPs和生物炭通过增强保水性、阳离子交换能力(CEC)和微生物活性来改善土壤性质,使土壤更加肥沃和高产。生物炭的多孔结构有助于锌的缓慢持续释放,确保其在较长时间内的生物有效性,并减少频繁施肥的需求。这种协同作用促进了可持续农业实践,减少了传统耕作方法的环境足迹。然而,生物放大、纳米颗粒积累和毒性等潜在生态风险需要仔细考虑。全面的风险评估和管理策略对于确保农业效益不损害环境或人类健康至关重要。未来的研究应侧重于在农业中部署Zn NPs的可持续做法,平衡粮食安全和生态完整性,并将这种方法定位为养分高效和可持续农业的可行解决方案。