The MdERF61-mdm-miR397b-<i>MdLAC7b</i> module regulates apple resistance to <i>Fusarium solani</i> via lignin biosynthesis

Apple replant disease (ARD) is a worldwide problem that threatens the industry. However, the genetic mechanism underlying plant disease resistance against ARD remains unclear. In this study, a negative regulatory microRNA in Malus domestica, mdm-miR397b, and its direct target MdLAC7b (Laccase) was selected for examination based on our previous small RNA and degradome sequencing results. Overexpressing the mdm-miR397b-MdLAC7b module altered the lignin deposition and jasmonic acid contents in apple roots, which also led to increased resistance to Fusarium solani. Additionally, Y1H library screening using mdm-miR397b promoter recombinants identified a transcription factor, MdERF61, that represses mdm-miR397b transcriptional activity by directly binding to 2 GCC-boxes in the mdm-miR397b promoter. In summary, our results suggest that the MdERF61-mdm-miR397b-MdLAC7b module plays a crucial role in apple resistance to F. solani and offers insights for enhancing plant resistance to soil-borne diseases in apples.

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Publication Details

Journal
PLANT PHYSIOLOGY
Published
2024-10-07
DOI
https://doi.org/10.1093/plphys/kiae518
Citations
11
Primary Topic
Plant Pathogens and Fungal Diseases
Type
article
Field-Weighted Citation Impact
3.59

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article

The MdERF61-mdm-miR397b-MdLAC7b module regulates apple resistance to Fusarium solani via lignin biosynthesis

Qiming Gao, Zhenzhen Liu, Yaru Zhang, Jia‐Long Yao et al.
11 citations
PLANT PHYSIOLOGY
Plant Pathogens and Fungal Diseases
3.59
article

The MdERF61-mdm-miR397b-MdLAC7b module regulates apple resistance to Fusarium solani via lignin biosynthesis

Qiming Gao, Zhenzhen Liu, Yaru Zhang, Jia‐Long Yao, Zhe Zhou, Hengtao Zhang, Yi Tian, Yarong Wang, Yanmin Zhu, H.J. Zhang, Zhenli Yan
article en
11 citations

Abstract

Apple replant disease (ARD) is a worldwide problem that threatens the industry. However, the genetic mechanism underlying plant disease resistance against ARD remains unclear. In this study, a negative regulatory microRNA in Malus domestica, mdm-miR397b, and its direct target MdLAC7b (Laccase) was selected for examination based on our previous small RNA and degradome sequencing results. Overexpressing the mdm-miR397b-MdLAC7b module altered the lignin deposition and jasmonic acid contents in apple roots, which also led to increased resistance to Fusarium solani. Additionally, Y1H library screening using mdm-miR397b promoter recombinants identified a transcription factor, MdERF61, that represses mdm-miR397b transcriptional activity by directly binding to 2 GCC-boxes in the mdm-miR397b promoter. In summary, our results suggest that the MdERF61-mdm-miR397b-MdLAC7b module plays a crucial role in apple resistance to F. solani and offers insights for enhancing plant resistance to soil-borne diseases in apples.

PLANT PHYSIOLOGYVol. 197(1)
Hebei Agricultural University (CN), Agricultural Research Service (US), Plant & Food Research (NZ), United States Department of Agriculture (US), Tree Fruit Research Laboratory (US), Zhengzhou Fruit Research Institute (CN), Chinese Academy of Agricultural Sciences (CN)
National Natural Science Foundation of China, Chinese Academy of Agricultural Sciences, Agricultural Science and Technology Innovation Program
Openalex Percentile: Top 7%
Plant Pathogens and Fungal Diseases
3.59
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