Evolution trajectory of auxin response factor across Triticeae species underpin candidate genes for the regulation of salt/alkali stress responsive networks
It is demonstrated that underutilized genome evolution data aids gene mining in complex crop genomes, providing novel genetic resources for wheat salt/alkali tolerance breeding and insights into auxin-mediated stress adaptation mechanisms.
It is demonstrated that heterologous expression of TksPLATZ1, TksPLATZ2 and TksPLATZ7 localize to the cell nucleus and act as transcriptional activators and repressors, respectively, which enhances the tolerance of Arabidopsis to salt and osmotic stress.
Jinxian Chen, Wenhao Wu, Ming-Hua Luo et al.· Phytochemistry· 0 citations
A hormone- and anthocyanin-centered framework is proposed for understanding the apparent negative association between salt/drought tolerance and thermotolerance in B. rapa and suggests that hormone-directed anthocyanin metabolism may contribute to the negative association between osmotic tolerance and thermotolerance.
Mei Zheng, Pei-Rong Li, Xiao-Yun Xin et al.· Frontiers in Plant Science· 0 citations
It is suggested that MsTIFY11B may contribute to salt–alkali tolerance, making it a promising candidate for further functional characterization and potential application in the development of stress-adapted alfalfa varieties.
Lin Cheng, Yan-Feng Liu, Qing-Chun Liu et al.· Plants· 0 citations
An evolutionary and transcriptional atlas of the wheat TaBSK family is delivered and candidate genes for functional validation and molecular breeding toward salt-tolerant wheat varieties are provided.
Yong-Tao Zhao, Jun-Sen Wang, Zhong-Zhou Zhang et al.· Current Issues in Molecular...· 0 citations
FaNAC6 was selected for its strong induction in leaves and roots in response to drought and salinity, as well as under oxidative stress and ABA, and was associated with the upregulation of genes involved in photosystems, electron transport and carbon fixation.
Facundo Spadoni-Revol, M. D. Moreno-Recio, Sara Aguado-Delgado et al.· International Journal of Mol...· 0 citations
This study establishes a solid foundation for further clarifying the biological functions and molecular mechanisms of ZmEREB54 in regulating maize root growth and development, as well as responding to drought and salt stresses.
Yu-Qian Gao, Jun-Xia Wang, D. Zheng et al.· BMC Plant Biology· 0 citations
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