山楂
脯氨酸
茉莉酸
栽培
生物
转录组
盐度
多胺
苯丙素
基因
生物合成
植物
生物化学
基因表达
氨基酸
生态学
作者
Deepak Kumar,Riman Saha Chaudhury,Kajal Mandal,Prajjwal Pradhan,Sampurna Bhattacharya,Bimal Das,Ria Mukhopadhyay,Victor Phani,Prudveesh Kantamraju,Sahanob Nath,Rupsanatan Mandal,Priyanka Boro
标识
DOI:10.1016/j.plaphy.2024.108388
摘要
Grass pea has the potential to become a miracle crop if the stigma attached to it as a toxic plant is ignored. In light of the following, we conducted transcriptome analyses on the high and low ODAP-containing cultivars i.e., Nirmal and Bidhan respectively in both normal and salt stress conditions. In this study, genes that work upstream and downstream to β-ODAP have been found. Among these genes, AAO3 and ACL5 were related to ABA and polyamine biosynthesis, showing the relevance of ABA and polyamines in boosting the β-ODAP content in Nirmal. Elevated β-ODAP levels in salt stress-treated Bidhan may have evolved tolerance by positively regulating the expression of genes involved in phenylpropanoid and jasmonic acid biosynthesis. Although the concentration of β-ODAP in Bidhan increased under salt stress, it was lower than in stress-treated Nirmal. Despite this, the expression of stress-related genes that work downstream to β-ODAP was found higher in stress-treated Bidhan. This could be because stress-treated Nirmal has lower GSH, proline, and higher H2O2, resulting in the development of severe oxidative stress. Overall, our research not only identified new genes linked with β-ODAP, but also revealed the molecular mechanism by which a low β-ODAP-containing cultivar developed tolerance against salinity stress.
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