数字农科院2.0

Characterization and Genome Analysis of Fusarium oxysporum Provides Insights into the Pathogenic Mechanisms of the Pokkah Boeng Disease in China

文献类型： 外文期刊

作者： Wenfeng Lin;Chi Zhang;Sehrish Akbar;Suyan Wu;Yabing Yue;Gege Wang;Yu Zhou;Charles A. Powell;Wei Yao;Jianlong Xu;Baoshan Chen;Muqing Zhang;Yixue Bao

作者机构：

关键词： disease prevention and control;Fusarium oxysporum;pathogenic mechanism;Pokkah Boeng disease

期刊名称： Microorganisms

ISSN： 2076-2607

年卷期： 2025 年 13 卷 3 期

页码：

收录情况： SCIE（2025版）

摘要： Pokkah Boeng Disease (PBD) is a severe and devastating disease that causes significant damage and yield losses in China. The pathogenic fungus Fusarium oxysporum is responsible for the rapid onset of top rot symptoms in sugarcane. In this study, we selected a representative strain, BS2-6, to perform morphological observations of colonies and determine pathogenicity. We examined the effects of BS2-6 infestation on the ultrastructure of sugarcane leaves. Moreover, we sequenced the whole genome of BS2-6 and examined the effects of various nitrogen sources and chemical reagents on its growth and pathogenicity. Our results indicate that sugarcane leaves inoculated with BS2-6 quickly succumb to heart leaf and growing rot. Ultrastructural analysis revealed that the surface tissues of the diseased leaves were destroyed with mycelium, and conidia blocked leaf stomata, which ultimately led to the degradation of leaf tissues. Ammoniacal nitrogen significantly promoted mycelial growth, pigment secretion, and the expression of genes related to secondary metabolite synthesis, thereby accelerating the development of PBD. In addition, we found that carbendazim effectively inhibited the growth of BS2-6 at various concentrations. These findings provide important insights for the effective prevention and control of PBD during sugarcane production.

分类号：

  • 相关文献

[1]Short peptides make a big difference: the role of botany-derived amps in disease control and protection of human health. Xiumei Luo,Wenxian Wu,Li Feng,Haim Treves,Maozhi Ren. 2021

[2]Editorial: Foodborne Enterobacteriaceae of Animal Origin. Fangkun Wang,Wanjiang Zhang,Dongyan Niu. 2021

[3]Interactions between Verticillium dahliae and cotton: pathogenic mechanism and cotton resistance mechanism to Verticillium wilt. Zhu, Yutao,Zhao, Mei,Li, Taotao,Wang, Lianzhe,Liao, Chunli,Liu, Dongxiao,Zhang, Huamin,Zhao, Yanpeng,Liu, Lisen,Ge, Xiaoyang,Li, Bingbing. 2023

[4]Editorial: Pathogenic mechanism of porcine viral disease. Mengmeng Zhao,Xuelian Zhang,Lingxue Yu,Weili Kong. 2024

[5]Insights into the Pathogenic Role of Fusaric Acid in Fusarium oxysporum Infection of Brassica oleracea through the Comparative Transcriptomic, Chemical, and Genetic Analyses. Dong, Xin,Ling, Jian,Li, Zeyu,Jiao, Yang,Zhao, Jianlong,Yang, Yuhong,Mao, Zhenchuan,Xie, Bingyan,Lai, Daowan,Li, Yan. 2025

[6]Insights and progress on epidemic characteristics, pathogenesis, and preventive measures of African swine fever virus: A review. Li, Mei,Zheng, Haixue. 2025

[7]Newcastle disease virus hijacks chicken red blood cells as dissemination vehicles with concomitant adsorption-mediated cell death. Qingyi Wang,Yang Qu,Yingjie Sun,Ying Liao,Xusheng Qiu,Lei Tan,Cuiping Song,Ning Tang,Libin Chen,Tao Ren,Chan Ding. 2025

[8]The Novel Cerato-Platanin-Like Protein Foccp1 F.rom Fusarium Oxysporum Triggers A n Immune Response In Plants. Li, Songwei,Pei, Xinwu,Shi, Mingwang,Zhang, Yi,Yang, Xiufen,Zeng, Hongmei,Yuan, Qianhua,Li, Songwei,Li, Lin,Dong, Yijie,Qiu, Dewen. 2019

[9]Comparative genomics provide a rapid detection of Fusarium oxysporum f. sp conglutinans. Ling Jian,Zhang Ji-xiang,Zeng Feng,Cao Yue-xia,Xie Bing-yan,Yang Yu-hong. 2016

[10]Bacterial expression of a Trichosanthes kirilowii defensin (TDEF1) and its antifungal activity on Fusarium oxysporum. Jian Gui-Liang,Zhang Ying-Tao,Ai Tie-Min.

[11]Production of methyl sulfide and dimethyl disulfide from soil-incorporated plant materials and implications for controlling soilborne pathogens. Tharayil, N.,Gerik, J.,Rosen, C.,Kinkel, L.,Cao, A..

[12]Creation of transgenic bananas expressing human lysozyme gene for Panama wilt resistance. Pei, XW,Chen, SK,Wen, RM,Ye, S,Huang, JQ,Zhang, YQ,Wang, BS,Wang, ZX,Jia, SR. 2005

[13]Pathogenic variation and molecular characterization of Fusarium species isolated from wilted sesame in China. Li Dong-hua,Wang Lin-hai,Zhang Yan-xin,Lv Hai-xia,Qi Xiao-qiong,Wei Wen-liang,Zhang Xiu-rong. 2012

[14]Microscopic analysis of the compatible and incompatible interactions between Fusarium oxysporum f. sp conglutinans and cabbage. Li, Erfeng,Wang, Gang,Yang, Yuhong,Xiao, Jiling,Mao, Zhenchuan,Xie, Bingyan.

[15]Identification of a class of CFEM proteins containing a new conserved motif in Fusarium oxysporum. Ling, Jian,Zeng, Feng,Cao, Yuexia,Zhang, Jixiang,Chen, Guohua,Mao, Zhenchuan,Yang, Yuhong,Xie, Bingyan.

[16]The effect of root exudates from two transgenic insect-resistant cotton lines on the growth of Fusarium oxysporum. Xiao-gang Li,Biao Liu,Sondre Heia,Dou-dou Liu,Zheng-min Han,Ke-xin Zhou,Jin-jie Cui,Jun-yu Luo,Yang-ping Zheng.

[17]A high efficiency gene disruption strategy using a positive-negative split selection marker and electroporation for Fusarium oxysporum. Liang, Liqin,Ling, Jian,Luo, Zhongqin,Xie, Bingyan,Liang, Liqin,Li, Jianqiang,Liang, Liqin,Cheng, Lin,Bai, Miao.

[18]Flame soil disinfestation: A novel, promising, non-chemical method to control soilborne nematodes, fungal and bacterial pathogens in China. Wang, Qiuxia,Yan, Dongdong,Li, Yuan,Ouyang, Canbin,Guo, Meixia,Cao, Aocheng,Mao, Liangang,Wang, Qiuxia,Yan, Dongdong,Li, Yuan,Ouyang, Canbin,Guo, Meixia,Cao, Aocheng.

[19]Target of rapamycin controls hyphal growth and pathogenicity through FoTIP4 in Fusarium oxysporum. Linxuan Li,Tingting Zhu,Yun Song,Xiumei Luo,Raju Datla,Maozhi Ren. 2021

[20]Host-induced silencing of a nematode chitin synthase gene enhances resistance of soybeans to both pathogenic Heterodera glycines and Fusarium oxysporum. Kong, Lingan,Shi, Xue,Chen, Deng,Yang, Nan,Yin, Changfa,Yang, Jun,Wang, Gaofeng,Huang, Wenkun,Peng, Huan,Peng, Deliang,Liu, Shiming. 2022

作者其他论文 更多>>