Sanhong Fan

Dr. Sanhong Fan


Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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Verified
Journal Article
Open access
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MDMingzhu Dou
Mingzhu Dou
SFSanhong Fan
Sanhong Fan
SYSuxin Yang
Suxin Yang
RHRongfeng Huang
Rongfeng Huang
HYHuiyun Yu
Huiyun Yu
Xianzhong FengXianzhong Feng
Xianzhong Feng
Ectopic expression of the MYB transcription factor of AmROSEA1 from Antirrhinum majus has been reported to change anthocyanin and other metabolites in several species. In this study, we found that overexpression of AmRosea1 significantly improved the tolerance of transgenic rice to drought and salinity stresses. Transcriptome analysis revealed that a considerable number of stress-related genes were affected by exogenous AmRosea1 during both drought and salinity stress treatments. These affected genes are involved in stress signal transduction, the hormone signal pathway, ion homeostasis and the enzymes that remove peroxides. This work suggests that the AmRosea1 gene is a potential candidate for genetic engineering of crops.

14 December 2016 in Preprints.org
Verified
Preprint
Open access
PDF file
MDMingzhu Dou
Mingzhu Dou
SFSanhong Fan
Sanhong Fan
SYSuxin Yang
Suxin Yang
RHRongfeng Huang
Rongfeng Huang
HYHuiyun Yu
Huiyun Yu
Xianzhong FengXianzhong Feng
Xianzhong Feng
Ectopic expression of the MYB transcription factor of AmROSEA1 from Antirrhinum majus has been reported to change anthocyanin and other metabolites in several species. In this study, we found that overexpression of AmRosea1 significantly improved the tolerance of transgenic rice to drought and salinity stress. Transcriptome analysis revealed that a considerable amount of stress-related genes were affected by exogenous AmRosea1 during both drought and salinity stress treatments. These affected genes are involved in stress signal transduction, the hormone signal pathway, ion homeostasis and the enzymes that remove peroxides. This work suggests that the AmRosea1 gene is a potential candidate for genetic engineering of crops.