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关于植物引起笄霉腐烂及其对杀菌剂敏感性的首次报告。

First Report on Causing Choanephora Rot in Plants and Its Sensitivity to Fungicide.

作者信息

Yin Hui, Tian Miao, Peng Yufei, Qin Nan, Lü Hong, Ren Lu, Zhao Xiaojun

机构信息

College of Plant Protection, Shanxi Agricultural University, Taiyuan 030031, China.

出版信息

J Fungi (Basel). 2023 Aug 28;9(9):881. doi: 10.3390/jof9090881.

Abstract

Choanephora rot of plants (CRC) was observed at the flowering stages in seven plantations of Shanxi Province, China. CRC had caused leaf, stem, and panicle neck rot of , panicle neck and stem rot of , and stem rot of . Typical symptoms included water-soaked, rapid soft rotting, and abundant sporulation on the whole panicle necks, stems, and leaves. Based on morphological characteristics, phylogenetic analyses, and pathogenicity tests, the pathogens were identified as . Sporangiola and sporangiospore of germinated at 30 °C and were able to germinate by two h post-inoculation (hpi). The germination rates of sporangiola and sporangiospore significantly increased at 3 to 4 hpi, and the germination rates ranged from 91.53 to 97.67%. The temperature had a significant effect on the pathogenicity of the optimum pathogenic temperatures for stems of , and were 30 °C after one day post-inoculation. could infect white and red quinoa panicle necks between 20 and 30 °C, and the average lesion lengths were 0.21 to 3.62 cm. Among the five tested fungicides (boscalid, dimethomorph, isopyrazam, propiconazole, and tebuconazole), isopyrazam showed higher sensitivity to sporangiola germination of , with an EC value of 0.6550 μg/mL. Isopyrazam and tebuconazole strongly inhibited the sporangiospore germination of , which showed EC values of 0.4406 and 0.3857 μg/mL. To our knowledge, the present study found for the first time that is a pathogen causing panicle neck of and stem rot of and , while CRC first appeared in the quinoa panicle necks, and gradually expanded to stems and leaves.

摘要

在中国山西省的七个种植园中,在开花阶段观察到植物的瓜笄霉腐烂病(CRC)。CRC导致了[具体植物1]的叶、茎和穗颈腐烂,[具体植物2]的穗颈和茎腐烂,以及[具体植物3]的茎腐烂。典型症状包括整个穗颈、茎和叶上出现水渍状、快速软腐和大量产孢。基于形态特征、系统发育分析和致病性测试,病原菌被鉴定为[病原菌名称]。[病原菌名称]的分生孢子梗和分生孢子在30℃下萌发,接种后2小时(hpi)能够萌发。分生孢子梗和分生孢子的萌发率在接种后3至4小时显著增加,萌发率在91.53%至97.67%之间。温度对[病原菌名称]的致病性有显著影响,接种一天后,[具体植物1]、[具体植物2]和[具体植物3]茎的最佳致病温度为30℃。[病原菌名称]在20至30℃之间可感染白藜麦和红藜麦穗颈,平均病斑长度为0.21至3.62厘米。在五种测试杀菌剂(啶酰菌胺、烯酰吗啉、吡唑醚菌酯、丙环唑和戊唑醇)中,吡唑醚菌酯对[病原菌名称]分生孢子梗萌发表现出较高的敏感性,EC值为0.6550μg/mL。吡唑醚菌酯和戊唑醇强烈抑制[病原菌名称]分生孢子的萌发,EC值分别为0.4406和0.3857μg/mL。据我们所知,本研究首次发现[病原菌名称]是导致[具体植物1]穗颈和[具体植物2]、[具体植物3]茎腐烂的病原菌,而CRC首次出现在藜麦穗颈上,并逐渐扩展到茎和叶。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/190a/10532463/c8d796fd4066/jof-09-00881-g001.jpg

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