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伊利奥丝核菌引起加利福尼亚州油橄榄(油橄榄属)根腐病的首次报道

First Report of Ilyonectria macrodidyma Causing Root Rot of Olive Trees (Olea europaea) in California.

作者信息

Úrbez-Torres J R, Peduto F, Gubler W D

机构信息

Pacific Agri-Food Research Centre, Agriculture and Agri-Food Canada, 4200 Highway 97, Box 5000, Summerland, BC V0H1Z0, Canada.

Department of Plant Pathology, University of California Davis, Davis 95616.

出版信息

Plant Dis. 2012 Sep;96(9):1378. doi: 10.1094/PDIS-04-12-0330-PDN.

DOI:10.1094/PDIS-04-12-0330-PDN
PMID:30727170
Abstract

The California olive industry produces 99% of the U.S. olive crop, which represented a value of over $113 million in 2010. During the 2008 and 2009 growing seasons, decline of young super-high-density olive cvs. Arbequina, Arbosana, and Koroneiki trees (<4 years old) was observed in orchards throughout Glenn, Yolo, and San Joaquin Counties. Symptomatic trees showed stunted growth and chlorotic leaves with roots having black, sunken, necrotic lesions, which frequently prolonged into the base and crown of the tree. Twenty-five trees were collected from different orchards and necrotic roots as well as infected trunk tissue were plated onto potato dextrose agar amended with 0.01% tetracycline hydrochloride. Cultures were incubated at room temperature (23 ± 2°C) until fungal colonies were observed. In 17 out of 25 trees collected (68%), light yellow fungal colonies were observed from the symptomatic tissue after 7 to 10 days. Colonies turned dark yellow to orange with age and showed an orange-dark brown reverse. Both microconidia (hyaline, ellipsoidal to ovoidal and aseptate (n = 60) (6.5) 11.5 to 13.5 (17.1) × (3) 3.4 to 4.5 (5.6) μm) and macroconidia (hyaline, cylindrical, straight and/or slightly curved with one, two or three septa (n = 60) (12.5) 26.5 to 38.5 (44.1) × (4) 5.5 to 7.5 (8.5) μm) were observed. Culture and conidial morphology were in concordance with previous published description of Ilyonectria macrodidyma (Halleen, Schroers & Crous) P. Chaverri & C. Salgado (1,3,4). Identification to species level was confirmed by sequence comparison of four Californian isolates (UCCE958, UCCE959, UCCE960, and UCCE961) with sequences available in GenBank using the internal transcribed spacer region (ITS1-5.8S-ITS2) of the rDNA (primers ITS1/ITS4), a portion of the β-tubulin gene (BT1a/BT1b), and a partial sequence of the mitochondrial small subunit rDNA (NMS1/NMS2) (4). Fungal sequences of isolates from olive from California (GenBank JQ868543 to JQ868554) showed 99 to 100% homology with previously identified and deposited I. macrodidyma isolates in Genbank for all three genes. Pathogenicity of I. macrodidyma in olive cvs. Arbequina, Arbosan, and Koroneiki was investigated using two fungal isolates (UCCE958 and UCCE960) as reported by Petit and Gubler (4). The roots of 10 1-year-old trees per fungal isolate for each olive cultivar were individually inoculated with 25 ml of a 10 conidia/ml spore suspension and placed in a lath house at the UC Davis field station. Additionally, 10 trees per cultivar were inoculated with sterile water as controls. Six months after inoculation, most of the inoculated olive plants showed chlorotic leaves similar to those observed in commercial orchards. Root necrosis for each cv. was expressed as the percentage of root length having lesions (2). No significant difference was observed between isolates and average root necrosis was 29.4, 35.6, and 38.3% in Koroniki, Arbosana, and Arbequina, respectiveley. I. macrodidyma was recovered from symptomatic roots in each of the cvs. and identified based on morphology. No root rot symptoms were observed in the controls. To our knowledge, this is the first report of I. macrodidyma causing root rot of olive trees not only in California but anywhere in the world. References: (1) P. Chaverri et al. Stud. Mycol. 68:57, 2011. (2) M. Giovanetti and B. Mosse. New Phytol. 84:489, 1980. (3) F. Halleen et al. Stud. Mycol. 50:421, 2004. (4) E. Petit and W. D. Gubler. Plant Dis. 89:1051, 2005.

摘要

加利福尼亚州的橄榄产业产出了美国99%的橄榄作物,2010年其产值超过1.13亿美元。在2008年和2009年的生长季期间,格伦、约洛和圣华金县的果园里均观察到超高密度种植的幼龄橄榄品种(<4年树龄)的阿贝基纳、阿尔博萨纳和科罗内基树出现衰退。有症状的树生长发育不良,叶片褪绿,根部有黑色、凹陷、坏死的病斑,这些病斑常常延伸至树的基部和树冠。从不同果园采集了25棵树,将坏死的根以及受感染的树干组织接种到添加了0.01%盐酸四环素的马铃薯葡萄糖琼脂上。培养物在室温(23±2°C)下培养,直至观察到真菌菌落。在采集的25棵树中的17棵(68%)上,7至10天后从有症状的组织中观察到浅黄色真菌菌落。菌落随着时间推移变为深黄色至橙色,且背面呈橙深褐色。观察到了小型分生孢子(透明,椭圆形至卵形,无隔膜(n = 60)(6.5)11.5至13.5(17.1)×(3)3.4至4.5(5.6)μm)和大型分生孢子(透明,圆柱形,直形和/或微弯,有一、二或三个隔膜(n = 60)(12.5)26.5至38.5(44.1)×(4)5.5至7.5(8.5)μm)。培养物和分生孢子形态与先前发表的关于大孢伊利奥内壳菌(哈林、施勒尔斯和克劳斯)P. 查韦里和C. 萨尔加多的描述一致(1,3,4)。通过将四个加利福尼亚分离株(UCCE958、UCCE959、UCCE960和UCCE961)的序列与GenBank中使用核糖体DNA的内部转录间隔区(ITS1 - 5.8S - ITS2)(引物ITS1/ITS4)、β - 微管蛋白基因的一部分(BT1a/BT1b)以及线粒体小亚基rDNA的部分序列(NMS1/NMS2)(4)的可用序列进行比较,确定到种的水平。来自加利福尼亚橄榄的分离株的真菌序列(GenBank JQ868543至JQ868554)在所有三个基因上与GenBank中先前鉴定并保存的大孢伊利奥内壳菌分离株显示出99%至100%的同源性。如佩蒂特和古布勒(4)所报道,使用两个真菌分离株(UCCE958和UCCE960)研究了大孢伊利奥内壳菌对橄榄品种阿贝基纳、阿尔博萨纳和科罗内基的致病性。对于每个橄榄品种,每个真菌分离株用25毫升10个分生孢子/毫升的孢子悬浮液分别接种10棵1年生树的根,并放置在加州大学戴维斯分校田间试验站的遮阳棚中。此外,每个品种用无菌水接种10棵树作为对照。接种六个月后,大多数接种的橄榄植株表现出与商业果园中观察到的类似的褪绿叶片。每个品种的根坏死率以有病变的根长度的百分比表示(2)。分离株之间未观察到显著差异,科罗内基、阿尔博萨纳和阿贝基纳的平均根坏死率分别为29.4%、35.6%和38.3%。从每个品种有症状的根中分离出大孢伊利奥内壳菌,并根据形态进行鉴定。对照中未观察到根腐症状。据我们所知,这是大孢伊利奥内壳菌不仅在加利福尼亚而且在世界任何地方引起橄榄树根腐病的首次报道。参考文献:(1)P. 查韦里等人,《真菌学研究》68:57,2011年。(2)M. 乔瓦内蒂和B. 莫斯,《新植物学家》84:489,1980年。(3)F. 哈林等人,《真菌学研究》50:421,2004年。(4)E. 佩蒂特和W. D. 古布勒,《植物病害》89:1051,2005年。

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