Shankui Yuan

Dr. Shankui Yuan


Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

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

Representative Publications

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27 October 2014 in Annals of Applied Biology
Verified
Journal Article
Closed access
PDF file
YCY. Chen
Y. Chen
XYX. Yang
X. Yang
CGC‐Y. Gu
C‐Y. Gu
AZA‐F. Zhang
A‐F. Zhang
YZY. Zhang
Y. Zhang
SYShankui Yuan
Shankui Yuan

3 February 2015 in Annals of Applied Biology
Verified
Journal Article
Closed access
PDF file
YCY. Chen
Y. Chen
XYX. Yang
X. Yang
SYShankui Yuan
Shankui Yuan
YLY.‐F. Li
Y.‐F. Li
AZA.‐F. Zhang
A.‐F. Zhang
TGT.‐C. Gao
T.‐C. Gao

13 April 2023 in Microbiology Spectrum
Verified
Journal Article
Open access
HZHao-Yu Zang
Hao-Yu Zang
XYXue Yang
Xue Yang
CGChun-Yan Gu
Chun-Yan Gu
JSJia-Zhi Sun
Jia-Zhi Sun
RPRui Pan
Rui Pan
YCYu Chen
Yu Chen
Sustainable chemical control for rice bacterial leaf blight caused by Xanthomonas oryzae pv. oryzae need to be developed due to limited bactericides with high efficiency, low cost, and low toxicity in China. This present study verified a broad-spectrum fungicide named Xinjunan possessing a specific high toxicity to Xanthomonas pathogens, which were further confirmed by affecting the cellular iron metabolism of Xoo as a novel mode of action.

9 April 2026 in Foods
Verified
Journal Article
Open access
PDF file
SLSizhen Liu
Sizhen Liu
LHLonghui Huang
Longhui Huang
QSqianlong sun
qianlong sun
CMCésar Man
César Man
YYYangdan Yuan
Yangdan Yuan
XTXinQiu Tan
XinQiu Tan
Persea americana (avocado) is a fruit rich in nutrients; however, its industry is facing major threats from pathogen infection. Here, we clearly identified Colletotrichum fructicola as the pathogen causing avocado diseases in Pu’er City, Yunnan Province. However, the biological characteristics, genetic transformation system, and early cell cycle regulation of this pathogen remained unclear. In this study, C. fructicola exhibited a maximum growth rate on complete medium (CM), with the conidial yield reaching 2 × 105 conidia/mL after 24 h in liquid CM. Conidia of C. fructicola had nearly fully germinated at 4 h post-inoculation (hpi), with the appressorium formation rate exceeding 95% at 12 hpi. We also established a PEG-CaCl2-mediated genetic transformation system. The GFP-tagged transformants showed no significant differences in core biological function from the wild type. Using eGFP labeling, we visually elucidated the early cell cycle regulation of C. fructicola. Furthermore, cell cycle inhibitor assays demonstrated that C. fructicola conidial germination is independent of nuclear division and relies on cytoskeletal modulation, whereas appressorium formation and mycelial expansion require functional cell cycle regulation. This is probably the first study to systematically elucidate the cell cycle regulatory characteristics of C. fructicola isolated from avocado, and to successfully develop its genetic transformation system. These results provide important theoretical and technical support for the formulation of integrated control strategies against C. fructicola, as well as facilitating the sustainable development of the avocado industry.