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利用分子检测评估纽约苹果白粉病菌(引起苹果白粉病的病原体)种群中的杀菌剂抗性。

Assessment of Fungicide Resistance via Molecular Assay in Populations of , Causal Agent of Apple Powdery Mildew, in New York.

机构信息

Section of Plant Pathology and Plant-Microbe Biology, School of Integrative Plant Science, Cornell AgriTech, Cornell University, Geneva, NY 14456.

Department of Plant Pathology and Environmental Microbiology, Pennsylvania State University, State College, PA 16802.

出版信息

Plant Dis. 2023 Sep;107(9):2606-2612. doi: 10.1094/PDIS-12-22-2820-SR. Epub 2023 Sep 18.

DOI:10.1094/PDIS-12-22-2820-SR
PMID:36802297
Abstract

, causal agent of apple powdery mildew, is a pathogen endemic worldwide where apples are produced. In the absence of durable host resistance, the disease is most effectively managed in conventional orchards with single-site fungicides. In New York State, increasingly erratic precipitation patterns and warmer temperatures due to climate change may create a regional environment more conducive to apple powdery mildew development and spread. In this scenario, outbreaks of apple powdery mildew may supplant the apple diseases of current management concern: apple scab and fire blight. Presently, there have been no reports from producers of fungicide control failures for apple powdery mildew, though increased disease incidence has been reported to and observed by the authors. As such, action was needed to assess the fungicide resistance status of populations of to ensure key classes of single-site fungicides (FRAC 3, demethylation inhibitors, DMI; FRAC 11, quinone outside inhibitors, QoI; and FRAC 7, succinate dehydrogenase inhibitors, SDHI) remain effective. In a 2-year survey (2021 to 2022), we collected 160 samples of from 43 orchards, representing conventional, organic, low-input, and unmanaged orchards from New York's primary production regions. Samples were screened for mutations in the target genes (, , and ) historically known to confer fungicide resistance in other fungal pathogens to the DMI, QoI, and SDHI fungicide classes, respectively. Across all samples, no nucleotide sequence mutations that translated into problematic amino acid substitutions were found in the target genes, suggesting that New York populations of remain sensitive to the DMI, QoI, and SDHI fungicide classes, provided no other fungicide resistance mechanism is at play in the population.

摘要

,苹果白粉病的病原体,是一种在全球范围内普遍存在的病原体,在苹果产区。在没有持久的宿主抗性的情况下,在常规果园中使用单一作用点杀菌剂是最有效的防治方法。在纽约州,由于气候变化导致的降水模式越来越不稳定和温度升高,可能会创造一个更有利于苹果白粉病发展和传播的区域环境。在这种情况下,苹果白粉病的爆发可能会取代当前管理关注的苹果病害:苹果黑星病和火疫病。目前,还没有生产者报告苹果白粉病的杀菌剂控制失败的情况,尽管作者已经报告和观察到该病的发病率有所增加。因此,需要采取行动来评估 的杀菌剂抗性状况,以确保关键的单一作用点杀菌剂(FRAC 3,脱甲基抑制剂,DMI;FRAC 11,醌外抑制剂,QoI;和 FRAC 7,琥珀酸脱氢酶抑制剂,SDHI)仍然有效。在一项为期两年的调查(2021 年至 2022 年)中,我们从纽约州主要生产区的 43 个果园中收集了 160 个 的样本,这些样本代表了常规、有机、低投入和无管理的果园。对这些样本进行了筛选,以检测目标基因(,,和)中的突变,这些突变在其他真菌病原体中分别赋予了对 DMI、QoI 和 SDHI 杀菌剂类别的抗性。在所有样本中,在目标基因中未发现导致有问题的氨基酸取代的核苷酸序列突变,这表明纽约 的种群对 DMI、QoI 和 SDHI 杀菌剂类仍然敏感,只要种群中没有其他杀菌剂抗性机制起作用。

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