Role of lenticels and microcracks on susceptibility of apple fruit to Botryosphaeria dothidea

文献类型： 外文期刊

第一作者： Guan, Yeqing

作者： Guan, Yeqing;Wang, Yi;Wu, Ting;Han, Zhenhai;Zhang, Xinzhong;Chang, Ruifeng;Liu, Guojian

作者机构：

关键词： Apple ring rot;Botryosphaeria dothidea;Cuticular wax;Lenticel;Malus;Microcrack

期刊名称：EUROPEAN JOURNAL OF PLANT PATHOLOGY （ 影响因子：1.907； 五年影响因子：2.022 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： Apple ring rot, caused by Botryosphaeria dothidea, is one of the most serious diseases affecting apple industry in East Asia. To study the correlation between fruit natural exocarp structures and susceptibility to B. dothidea, lesion length of Malus domestica cultivars and Malus germplasm accessions was measured 14 days after in vitro inoculation with B. dothidea mycelia at different developmental stages. Area per fruit surface (APFS) of lenticels and microcracks and thickness of cuticular wax were observed. Lesion length, lenticel APFS and cuticular wax thickness varied significantly among the 11 cultivars studied. A positive correlation between lesion length and lenticel APFS and a negative correlation between lesion length and cuticular wax thickness were detected among cultivars and during fruit development. In addition, similar correlations were validated in nine Malus germplasm accessions. Numerous microcracks were observed on surfaces of Golden Delicious and Golden Spur fruit, accounting for 90 % of the natural openings. The hyphae of B. dothidea penetrated into exocarp through both lenticels and microcracks. Fruit bagging with double-layered paper bags and exogenous GA(4+7) reduced lenticel APFS, thickened cuticular wax and elevated resistance to disease. Natural openings on fruit exocarp are an important factor affecting susceptibility of apple to B. dothidea.

分类号： S432.1

  • 相关文献

[1]Apple NPR1 homologs and their alternative splicing forms may contribute to SA and disease responses. Zhang, Junke,Wei, Qinping,Zhang, Junke,Wei, Qinping,Jiao, Peng,Zhang, Chong,Tong, Xiaolei,Xu, Lingfei. 2016

[2]Exploitation of Malus EST-SSRs and the utility in evaluation of genetic diversity in Malus and Pyrus. Yao, Lihua,Zheng, Xiaoyan,Cai, Danying,Teng, Yuanwen,Yao, Lihua,Zheng, Xiaoyan,Cai, Danying,Teng, Yuanwen,Gao, Yuan,Wang, Kun,Cao, Yufen.

[3]Recognition specificity of self-incompatibility in Pyrus and Malus. Heng, Wei,Wu, Jun,Wu, Huaqing,Zhang, Shao-Ling,Nishio, Takeshi,Cao, Yufen. 2011

[4]Diversity of flesh polyphenols and their progressive dilution during fruit expansion in Malus germplasm. Zhao, Jirong,Cao, Ke,Shen, Fei,Wu, Ting,Wang, Yi,Han, Zhenhai,Zhang, Xinzhong,Liu, Guojian,Chang, Ruifeng.

[5]Malus hupehensis miR168 Targets to ARGONAUTE1 and Contributes to the Resistance against Botryosphaeria dothidea Infection by Altering Defense Responses. Yu, Xinyi,Hou, Yingjun,Wang, Sanhong,Wang, Peihong,Qu, Shenchun,Yu, Xinyi,Chen, Weiping. 2017

[6]Sensitivity of Botryosphaeria dothidea from apple to tebuconazole in China. Fan, Kun,Fu, Li,Li, Xiaojun,Zhang, Yong,Zhang, Xuedan,Zhai, Hao,Qu, Jianlu,Wang, Jie.

[7]Characterization of Botryosphaeria dothidea, the causal agent of grapevine canker in China. Xie, Yue,Yao, Shengwei,Li, Xinghong,Xie, Yue,Yao, Shengwei,Wang, Zhongyue. 2012

[8]First Report of Botryosphaeria dothidea Causing Sweet Osmanthus Leaf Dieback in China. Lu Wei-hong,Xie Ling,Cen Zhen-lu,Hu Chun-jin,Qin Li-ping,Lu Wei-hong,Qin Bi-xia,Tang Chen-guang. 2010

[9]Inheritance and Molecular Marker of Resistance to Bot Canker in Malus domestica. Liu Hai-tao,Zhang Yu-jing,Wang Yi,Zhang Xin-zhong,Han Zhen-hai,Li Cai-li,Li Chun-min,Zhao Yong-bo,Chen Dong-mei,Li Cai-li. 2011

[10]Composition and morphology of cuticular wax in blueberry (Vaccinium spp.) fruits. Chu, Wenjing,Gao, Haiyan,Fang, Xiangjun,Chen, Hangjun,Xiao, Shangyue,Chu, Wenjing,Gao, Haiyan,Chu, Wenjing,Cao, Shifeng. 2017

[11]OsHSD1, a hydroxysteroid dehydrogenase, is involved in cuticle formation and lipid homeostasis in rice. Zhang, Zhe,Cheng, Zhi-jun,Gan, Lu,Wu, Fu-qing,Lin, Qi-bing,Wang, Jiu-lin,Wang, Jie,Guo, Xiu-ping,Zhang, Xin,Zhao, Zhi-chao,Lei, Cai-lin,Zhu, Shan-shan,Wan, Jian-min,Zhang, Huan,Wang, Chun-ming,Wan, Jian-min.

[12]Five Fatty Acyl-Coenzyme A Reductases Are Involved in the Biosynthesis of Primary Alcohols in Aegilops tauschii Leaves. Wang, Meiling,Wu, Hongqi,Li, Chunlian,Wang, Yong,Wang, Zhonghua,Xu, Jing. 2017

[13]Wax crystal-sparse leaf2, a rice homologue of WAX2/GL1, is involved in synthesis of leaf cuticular wax. Mao, Bigang,Cheng, Zhijun,Lei, Cailin,Xu, Fenghua,Gao, Suwei,Wang, Jiulin,Zhang, Xin,Wang, Jie,Wu, Fuqing,Guo, Xiuping,Liu, Xiaolu,Wu, Chuanyin,Wang, Haiyang,Wan, Jianmin,Ren, Yulong,Wan, Jianmin.

[14]Fine mapping of BoGL1, a gene controlling the glossy green trait in cabbage (Brassica oleracea L. Var. capitata). Liu, Dongming,Ye, Zhibiao,Liu, Dongming,Tang, Jun,Liu, Zezhou,Dong, Xin,Zhuang, Mu,Zhang, Yangyong,Lv, Honghao,Sun, Peitian,Liu, Yumei,Li, Zhansheng,Fang, Zhiyuan,Yang, Limei.

[15]Cgl2 plays an essential role in cuticular wax biosynthesis in cabbage (Brassica oleracea L. var. capitata). Liu, Dongming,Ye, Zhibiao,Liu, Dongming,Tang, Jun,Liu, Zezhou,Dong, Xin,Zhuang, Mu,Zhang, Yangyong,Lv, Honghao,Sun, Peitian,Liu, Yumei,Li, Zhansheng,Fang, Zhiyuan,Yang, Limei. 2017

[16]Wax Crystal-Sparse Leaf 4, encoding a beta-ketoacyl-coenzyme A synthase 6, is involved in rice cuticular wax accumulation. Gan, Lu,Zhu, Shanshan,Zhao, Zhichao,Wang, Xiaole,Zhang, Zhe,Zhang, Xin,Wang, Jie,Wang, Jiulin,Guo, Xiuping,Wan, Jianmin,Liu, Linglong,Wan, Jianmin.

[17]Wax crystal-sparse leaf 3 encoding a beta-ketoacyl-CoA reductase is involved in cuticular wax biosynthesis in rice. Gan, Lu,Wang, Xiaole,Cheng, Zhijun,Wang, Jiulin,Zhang, Zhe,Ren, Yulong,Lei, Cailin,Zhao, Zhichao,Zhu, Shanshan,Lin, Qibing,Wu, Fuqing,Guo, Xiuping,Wang, Jie,Zhang, Xin,Wan, Jianmin,Liu, Linglong,Wan, Jianmin.

[18]Fine mapping of BrWax1, a gene controlling cuticular wax biosynthesis in Chinese cabbage (Brassica rapa L. ssp pekinensis). Zhang, Xi,Liu, Zhiyong,Wang, Qiushi,Yang, Shuo,Feng, Hui,Wang, Ping.

作者其他论文 更多>>

微信小程序