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Characterization of the Soybean GmIREG Family Genes and the Function of GmIREG3 in Conferring Tolerance to Aluminum Stress

Overview
Journal Int J Mol Sci
Publisher MDPI
Date 2020 Jan 17
PMID 31941034
Citations 7
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Abstract

The IREG (IRON REGULATED/ferroportin) family of genes plays vital roles in regulating the homeostasis of iron and conferring metal stress. This study aims to identify soybean IREG family genes and characterize the function of in conferring tolerance to aluminum stress. Bioinformatics and expression analyses were conducted to identify six soybean IREG family genes. One , whose expression was significantly enhanced by aluminum stress, , was studied in more detail to determine its possible role in conferring tolerance to such stress. In total, six potential IREG-encoding genes with the domain of Ferroportin1 (PF06963) were characterized in the soybean genome. Analysis of the root tissue expression patterns, subcellular localizations, and root relative elongation and aluminum content of transgenic overexpressing demonstrated that GmIREG3 is a tonoplast localization protein that increases transgenic aluminum resistance but does not alter tolerance to Co and Ni. The systematic analysis of the GmIREG gene family reported herein provides valuable information for further studies on the biological roles of GmIREGs in conferring tolerance to metal stress. contributes to aluminum resistance and plays a role similar to that of . The functions of other GmIREG genes need to be further clarified in terms of whether they confer tolerance to metal stress or other biological functions.

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