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有机肥与海洋废弃物衍生的 CaCO3 纳米载体系统的整合:聚焦于提高番茄种植的产量和品质。

Organic fertilizer integrated with marine waste derived CaCO nanocarrier system: A focus on enhanced yield and quality in tomato cultivation.

机构信息

Bionanomaterials Research Lab, Department of Nanoscience and Technology, Science Campus, Alagappa University, Karaikudi, Tamilnadu, 630003, India.

出版信息

Sci Rep. 2024 Oct 25;14(1):25299. doi: 10.1038/s41598-024-70478-4.

Abstract

Tomatoes are rich in lycopene, β-carotene, ascorbic acid and other mineral sources including phosphorus, potassium, zinc, magnesium and iron. Major constraints in tomato cultivation were high cost, poor cultivation due to adverse weather conditions, pest attacks, microbial infections and nutritional deficiency complications. Conventional fertilizers, pesticides, fungicides and growth regulators are effective at higher concentration, which induces specific toxic effects on soil fertility, plant yield and also affects the health status of humans, animals and soil associated microbes. The use of organic fertilizers to meet the soil nutrient demand increases the acidity of soil affecting plant growth, which turned the focus of researchers towards nanofertilizer. The present study focuses on synthesis of marine waste derived CaCO nanoparticles formulated with azadirachtin and panchakavya emulsion to develop a CaCO nanofertilizer. CaCO nanofertilizer developed through this study was investigated for its material properties and behavioral traits. Further, the in-vitro antifungal impact of the CaCO nanofertilizer was examined, and it was sprayed on tomato plants via foliar spray. CaCO nanofertilizer effectively inhibited fusarium wilt causing plant fungal pathogen and also exhibited enhanced growth and yield of tomatoes against pest attack and nutritional deficiency with effect to foliar treatment. Also, CaCO nanofertilizer enhanced the total carotenoid level and essential nutritional minerals in fruit yield of tomatoes. Overall, fabricated CaCO nanofertilizer exhibits synergistic role of fertilizer, pesticide, fungicide and growth regulator in tomato cultivation. It suggests that, CaCO nanofertilizer generated from renewable biowaste will become the innovative platform for sustainable agriculture.

摘要

番茄富含番茄红素、β-胡萝卜素、抗坏血酸和其他矿物质来源,包括磷、钾、锌、镁和铁。番茄种植的主要限制因素是成本高、由于恶劣的天气条件、病虫害、微生物感染和营养缺乏等并发症导致的种植条件差。传统肥料、农药、杀菌剂和生长调节剂在较高浓度下有效,但会对土壤肥力、植物产量产生特定的毒性影响,同时也会影响人类、动物和土壤相关微生物的健康状况。为了满足土壤养分需求而使用有机肥会增加土壤酸度,从而影响植物生长,这使得研究人员将注意力转向了纳米肥料。本研究的重点是合成由印楝素和潘查卡维亚乳液制成的海洋废物衍生 CaCO 纳米粒子,以开发 CaCO 纳米肥料。通过本研究开发的 CaCO 纳米肥料的材料性能和行为特性进行了研究。此外,还研究了 CaCO 纳米肥料的体外抗真菌作用,并通过叶面喷雾将其喷洒在番茄植株上。CaCO 纳米肥料有效抑制了引起植物真菌病原体的枯萎病,并且还表现出对害虫侵袭和营养缺乏的增强的番茄生长和产量,对叶面处理有效果。此外,CaCO 纳米肥料还提高了番茄果实中的总类胡萝卜素水平和必需的营养矿物质。总的来说,所制备的 CaCO 纳米肥料在番茄种植中表现出肥料、农药、杀菌剂和生长调节剂的协同作用。这表明,由可再生生物废物产生的 CaCO 纳米肥料将成为可持续农业的创新平台。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/6003/11511961/e52e5d4853f9/41598_2024_70478_Fig1_HTML.jpg

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