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烟草脆裂病毒在阿拉斯加牡丹上的首次报道

First Report of Tobacco rattle virus in Peony in Alaska.

作者信息

Robertson N L, Brown K L, Winton L M, Holloway P S

机构信息

USDA-ARS, Subarctic Agricultural Research Unit, Palmer, AK.

Department of Plant, Animal, and Soil Sciences, University of Alaska-Fairbanks.

出版信息

Plant Dis. 2009 Jun;93(6):675. doi: 10.1094/PDIS-93-6-0675B.

DOI:10.1094/PDIS-93-6-0675B
PMID:30764406
Abstract

Peonies (Paeonia sp.) are highly valued for their large showy flowers in home gardens and commercially in the cut flower industry. In 2007, scattered peony (Paeonia lactiflora 'Sarah Bernhardt') plants cultivated on small plots at the University of Alaska Experimental Station in Fairbanks displayed distinct leaf ringspot patterns. Symptoms were more severe during the cooler months of the growing season (June and September), with symptom remission in the intervening warmer months. Leaf samples from six symptomatic plants were collected in July and from 20 symptomatic plants in September and assayed for viruses. Leaf samples (1 g) were assayed with a general protocol for plant virus extraction and partial purification with differential centrifugation followed by protein detection on stained sodium dodecyl sulfate-polyacrylamide gel electrophoresis (1). No distinct proteins indicative of viral coat protein(s) were detected. Tomato spotted wilt virus (TSWV) and Tobacco rattle virus (TRV), known pathogens of peony, were then specifically targeted. Total RNA was extracted from each sample with an RNeasy Plant Mini kit (Qiagen Inc., Valencia, CA) and used as the template for reverse transcription (RT)-PCR with random primers. TSWV was not detected by RT-PCR with tospovirus group-specific primers (Agdia, Inc., Elkhart, IN). A nested set of primers designed from the TRV 16-kDa protein gene on RNA1 (4) amplified an ~600-bp fragment from one of the symptomatic plants. This DNA was directly sequenced (GenBank Accession No. FJ357572) and BLAST searches in GenBank revealed as much as 95% nucleotide (nt) identity with TRV accessions J04347 and X03685. Additional primer pairs specific for TRV (2) amplified overlapping fragments with expected sizes of ~818, ~515, and ~290 bp from the 29- and 16-kDa protein genes on the 3'-end of RNA1 that were directly sequenced. Assembly of these sequences in Sequencher 4.8 (Gene Codes Corp., Ann Arbor, MI) resulted in a 1,422-nt sequence (Accession No. FJ357571) and Clustal X analysis (3) showed 93 to 94% nt identity to TRV isolates, -ORY (AF034622), -PpK20 (AF314165), -Pp085 (AJ586803), and -SYM (D00155). Mechanical inoculation of partially purified virions from the confirmed TRV-infected peony plant to Nicotiana benthamiana gave no symptoms to occasional ringspots, faintly curled leaves, and chlorotic blotches on N. tabacum 'Samsun', and local lesions on Chenopodium amaranticolor. TRV infection of these hosts was confirmed by RT-PCR. With electron microscopy, rod-shaped particles similar to TRV with a distinct central canal characteristic of TRV were seen occasionally only from inoculated N. benthamiana. On the basis of the biological and molecular data, we have determined the virus in the peony to be an isolate of TRV, tentatively named TRV-Peony. TRV was confirmed in only one other peony based on a sequenced 290-nt PCR fragment with 95% identity with the sequence from the other TRV-infected peony. Lack of TRV detection in the other symptomatic peonies was possibly due to low viral concentrations and interfering plant substances. Documentation of TRV in peonies is especially important to help avoid distribution of virus-infected vegetative propagation material. To our knowledge, this is the first report of TRV in this host in Alaska, but also of this virus in Alaska. References: (1) L. C. Lane. Methods Enzymol. 118:687, 1986. (2) D. J. Robinson. J. Phytopathol. 152:286, 2004. (3) J. D. Thompson et al. Nucleic Acids Res. 24:4882, 1997. (4) F. Van Der Wilk et al. Eur. J. Plant Pathol.100:109, 1994.

摘要

芍药(芍药属)因其花朵大且艳丽,在家庭花园和切花行业都备受青睐。2007年,阿拉斯加大学费尔班克斯实验站小块土地上种植的几株芍药(芍药品种‘莎拉·伯恩哈特’)出现了明显的叶环斑症状。在生长季较凉爽的月份(6月和9月)症状更为严重,而在中间较温暖的月份症状缓解。7月从6株有症状的植株上采集了叶片样本,9月从20株有症状的植株上采集了样本并进行病毒检测。取1克叶片样本,按照植物病毒提取和部分纯化的通用方案,通过差速离心法进行处理,随后在染色的十二烷基硫酸钠 - 聚丙烯酰胺凝胶电泳上进行蛋白质检测(1)。未检测到指示病毒衣壳蛋白的明显蛋白质条带。之后专门针对已知的芍药病原体番茄斑萎病毒(TSWV)和烟草脆裂病毒(TRV)进行检测。使用RNeasy植物微型试剂盒(Qiagen公司,加利福尼亚州瓦伦西亚)从每个样本中提取总RNA,并用作随机引物逆转录(RT)-PCR的模板。使用番茄斑萎病毒属特异性引物(Agdia公司,印第安纳州埃尔克哈特)通过RT-PCR未检测到TSWV。根据RNA1上TRV的16 kDa蛋白基因设计的一组巢式引物(4),从一株有症状的植株中扩增出了一个约600 bp的片段。对该DNA进行直接测序(GenBank登录号FJ357572),并在GenBank中进行BLAST搜索,结果显示与TRV登录号J04347和X03685的核苷酸(nt)同源性高达95%。另外针对TRV的特异性引物对(2),从RNA1 3'端的29 kDa和16 kDa蛋白基因中扩增出了预期大小约为818、515和290 bp的重叠片段,并进行直接测序。在Sequencher 4.8(Gene Codes公司,密歇根州安娜堡)中对这些序列进行组装,得到了一个1422 nt的序列(登录号FJ357571),Clustal X分析(3)显示与TRV分离株 -ORY(AF034622)、-PpK20(AF314165)、-Pp085(AJ586803)和 -SYM(D00155)的nt同源性为93%至94%。将从确诊感染TRV的芍药植株中部分纯化的病毒粒子机械接种到本氏烟草上,在烟草品种‘萨姆逊’上偶尔出现环斑、叶片轻微卷曲和褪绿斑点症状,在苋色藜上出现局部病斑。通过RT-PCR证实了这些寄主感染了TRV。通过电子显微镜观察,仅在接种的本氏烟草中偶尔能看到与TRV相似的杆状粒子,且具有TRV特有的明显中央通道。基于生物学和分子数据,我们确定芍药中的病毒为TRV的一个分离株,暂命名为TRV - 芍药。基于一个测序的290 nt PCR片段与另一株感染TRV的芍药序列有95%的同源性,仅在另一株芍药中也证实了TRV的存在。在其他有症状的芍药中未检测到TRV,可能是由于病毒浓度低以及植物物质的干扰。记录芍药中的TRV对于避免传播感染病毒的营养繁殖材料尤为重要。据我们所知,这是TRV在阿拉斯加该寄主上的首次报道,也是该病毒在阿拉斯加的首次报道。参考文献:(1)L. C. Lane. Methods Enzymol. 118:687, 1986.(2)D. J. Robinson. J. Phytopathol. 152:286, 2004.(3)J. D. Thompson等. Nucleic Acids Res. 24:4882, 1997.(4)F. Van Der Wilk等. Eur. J. Plant Pathol.100:109, 1994.

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