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耐钴细菌可在豌豆(L.)中调动铁元素,以缓解缺铁土壤中的钴胁迫。

Cobalt tolerant bacteria mobilize iron in garden pea ( L.) to mitigate cobalt stress in iron deficit soils.

作者信息

Chandwani Sapna, Ahire Vaibhavi, Manoharadas Salim, Amaresan Natarajan

机构信息

C.G. Bhakta Institute of Biotechnology, Uka Tarsadia University, Surat, India.

Department of Botany and Microbiology, College of Science, King Saud University, Riyadh, Saudi Arabia.

出版信息

Int J Phytoremediation. 2025 Jun 24:1-13. doi: 10.1080/15226514.2025.2522304.

DOI:10.1080/15226514.2025.2522304
PMID:40556261
Abstract

Excess cobalt (Co) in plants induces oxidative stress and competes with iron (Fe), leading to Fe deficiency, leaf loss, and reduced chlorophyll content. Although Co is essential for some lower and leguminous plants, its toxicity hampers growth. In this study, seven previously isolated siderophore and 1-aminocyclopropane-1-carboxylate deaminase (ACCD) bacteria possessing PGP properties such as indole-3-acetic acid like substances production, and phosphate solubilization were screened for Co-tolerance. Pot study (2000 ppm Co stress) revealed enhanced root (108.10%-297.89%) and shoot length (28.99%-118.01%), and increased uptake of nitrogen (35.36-41.36 mg g), phosphorous (3.54-4.21 mg g), Co (3.09-5.2 µg g) and Fe (34.08-41.02 µg g), and chlorophyll (13.19-42.97 mg g). Furthermore, inoculation of bacteria also significantly enhanced the soil siderophore units (96.21%-262.01%), ACCD production (1.74-4.99 µmol mL) and the soil respiration activity such as fluorescein diacetate hydrolysis (11.33-48.57 µg g), dehydrogenase enzyme (99.26-197.32 µg g) and alkaline phosphatase (418.20-918.20 µg g). In conclusion, strains IMN 4 ( sp.) and SBTS 12 ( sp.) can be used to alleviate Co-stress mobilizing Co and Fe in plants grown in Fe limited soils.

摘要

植物中过量的钴(Co)会引发氧化应激,并与铁(Fe)竞争,导致缺铁、叶片脱落和叶绿素含量降低。尽管钴对一些低等植物和豆科植物是必需的,但其毒性会阻碍植物生长。在本研究中,对七种先前分离出的具有植物生长促进特性(如产生吲哚 - 3 - 乙酸类物质和溶解磷酸盐)的铁载体和1 - 氨基环丙烷 - 1 - 羧酸脱氨酶(ACCD)细菌进行了耐钴性筛选。盆栽试验(2000 ppm钴胁迫)显示,根长(增加108.10% - 297.89%)和茎长(增加28.99% - 118.01%)有所增强,氮(35.36 - 41.36 mg g)、磷(3.54 - 4.21 mg g)、钴(3.09 - 5.2 µg g)、铁(34.08 - 41.02 µg g)的吸收以及叶绿素(13.19 - 42.97 mg g)含量均有所增加。此外,接种细菌还显著提高了土壤铁载体单位(96.21% - 262.01%)、ACCD产量(1.74 - 4.99 µmol mL)以及土壤呼吸活性,如荧光素二乙酸水解(11.33 - 48.57 µg g)、脱氢酶(99.26 - 197.32 µg g)和碱性磷酸酶(418.20 - 918.20 µg g)。总之,IMN 4菌株(种)和SBTS 12菌株(种)可用于缓解铁受限土壤中生长的植物的钴胁迫,促进植物对钴和铁的吸收。

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