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荧光假单胞菌去铁胺 B 的纯化与特性分析及其在提高花生含油量、养分吸收和植物生长中的应用。

Purification and Characterization of Desferrioxamine B of Pseudomonas fluorescens and Its Application to Improve Oil Content, Nutrient Uptake, and Plant Growth in Peanuts.

机构信息

PG and Research Department of Botany, Padmavani Arts and Science College for Women, Salem, 636011, India.

Department of Botany, Periyar University, Salem, 636011, India.

出版信息

Microb Ecol. 2024 Apr 17;87(1):60. doi: 10.1007/s00248-024-02377-0.

DOI:10.1007/s00248-024-02377-0
PMID:38630182
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11024037/
Abstract

Microorganisms produce siderophores, which are low-molecular-weight iron chelators when iron availability is limited. The present analyzed the role of LNPF1 as multifarious PGPR for improving growth parameters and nutrient content in peanut and soil nutrients. Such multifarious PGPR strains can be used as effective bioinoculants for peanut farming. In this work, rhizosphere bacteria from Zea mays and Arachis hypogaea plants in the Salem area of Tamil Nadu, India, were isolated and tested for biochemical attributes and characteristics that stimulate plant growth, such as the production of hydrogen cyanide, ammonia (6 µg/mL), indole acetic acid (76.35 µg/mL), and solubilizing phosphate (520 µg/mL). The 16S rRNA gene sequences identified the isolate LNPF1 as Pseudomonas fluorescens with a similarity percentage of 99% with Pseudomonas sp. Isolate LNPF1 was evaluated for the production of siderophore. Siderophore-rich supernatant using a Sep Pack C18 column and Amberlite-400 Resin Column (λmax 264) produced 298 mg/L and 50 mg/L of siderophore, respectively. The characterization of purified siderophore by TLC, HPLC, FTIR, and 2D-NMR analysis identified the compound as desferrioxamine, a hydroxamate siderophore. A pot culture experiment determined the potential of LNPF1 to improve iron and oil content and photosynthetic pigments in Arachis hypogaea L. and improve soil nutrient content. Inoculation of A. hypogea seeds with LNPF1 improved plant growth parameters such as leaf length (60%), shoot length (22%), root length (54.68%), fresh weight (47.28%), dry weight (37%), and number of nuts (66.66) compared to the control (untreated seeds). This inoculation also improved leaf iron content (43.42), short iron content (38.38%), seed iron (46.72%), seed oil (31.68%), carotenoid (64.40%), and total chlorophyll content (98.%) compared to control (untreated seeds). Bacterized seeds showed a substantial increase in nodulation (61.65%) and weight of individual nodules (95.97) vis-à-vis control. The results of the present study indicated that P. fluorescens might be utilized as a potential bioinoculant to improve growth, iron content, oil content, number of nuts and nodules of Arachishypogaea L., and enrich soil nutrients.

摘要

微生物产生铁载体,当铁的可用性有限时,这些铁载体是低分子量的铁螯合剂。本研究分析了 LNPF1 作为多种 PGPR 对提高花生生长参数和养分含量以及土壤养分的作用。这种多种 PGPR 菌株可以用作有效的花生种植生物接种剂。在这项工作中,从印度泰米尔纳德邦塞勒姆地区的玉米和花生的根际细菌中分离出来,并测试了它们的生化特性和刺激植物生长的特性,如产生氢氰酸、氨(6μg/mL)、吲哚乙酸(76.35μg/mL)和溶解磷酸盐(520μg/mL)。16S rRNA 基因序列将分离株 LNPF1 鉴定为荧光假单胞菌,与假单胞菌的相似度为 99%。分离株 LNPF1 被评估为产生铁载体。使用 Sep Pack C18 柱和 Amberlite-400 树脂柱(λmax 264)分别产生 298mg/L 和 50mg/L 的铁载体。通过 TLC、HPLC、FTIR 和 2D-NMR 分析对纯化的铁载体进行的表征鉴定出该化合物为去铁胺,一种羟肟酸铁载体。盆栽试验确定了 LNPF1 提高花生铁和油含量以及光合色素并改善土壤养分含量的潜力。用 LNPF1 接种花生种子可改善植物生长参数,如叶片长度(60%)、茎长(22%)、根长(54.68%)、鲜重(47.28%)、干重(37%)和坚果数(66.66%)与对照(未处理的种子)相比。与对照(未处理的种子)相比,这种接种还提高了叶片铁含量(43.42%)、短铁含量(38.38%)、种子铁含量(46.72%)、种子油含量(31.68%)、类胡萝卜素(64.40%)和总叶绿素含量(98.00%)。细菌化种子的结瘤(61.65%)和单个根瘤的重量(95.97%)与对照相比有显著增加。本研究结果表明,荧光假单胞菌可以用作一种潜在的生物接种剂,以提高花生的生长、铁含量、油含量、坚果和根瘤的数量,并丰富土壤养分。

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