鹰嘴豆核心种质中鼠声球菌病原菌多样性及抗性来源鉴定

S. Farahani, R. Talebi, Mojdeh Maleki, R. Mehrabi, H. Kanouni
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引用次数: 12

摘要

青松病(Ascochyta rabiei)实验室。鹰嘴豆真菌病(Didymella rabiei)是世界上最重要的鹰嘴豆真菌病之一。了解病原体的侵袭性和鉴定不同病原体的抗性来源对育种计划的正确决策非常有用。本研究对来自伊朗不同地区的32株rabiei菌株在7个鹰嘴豆品种上的毒力进行了分析,并根据鹰嘴豆品种的易感/抗性模式和0-9分级量表将其分为6个小种。最少和最频繁的种族分别是种族V和种族I。5、6种对大部分差异表现出较高的毒力,而1种对大部分差异表现出最低的毒力。并对165个鹰嘴豆基因型对6个不同拉氏伊蚊小种的抗性进行了检测。方差分析显示,分离物、鹰嘴豆基因型及其相互作用差异极显著。鹰嘴豆与分离物(小种)相互作用共鉴定出259个耐药反应(疾病严重程度≤4)。鹰嘴豆基因型的抗性谱显示,对小种I和小种III的抗性较高(分别为49.70%和35.15%),而对小种VI无抗性。根据疾病严重程度进行聚类分析,将鹰嘴豆基因型分为4个不同的聚类。本研究中使用的分离株或小种之间的相互作用显示缺乏具有完全抗性的基因型。本研究的毒力模式和新发现的抗性来源对鹰嘴豆疫病抗性基因的整合具有重要意义,为今后鹰嘴豆种质资源保护和病害管理提供了依据。
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Pathogenic Diversity of Ascochyta rabiei Isolates and Identification of Resistance Sources in Core Collection of Chickpea Germplasm
Ascochyta blight caused by Ascochyta rabiei (Pass.) Lab. (Telomorph: Didymella rabiei) (Kov.) is one of the most important fungal diseases in chickpea worldwide. Knowledge about pathogen aggressiveness and identification resistance sources to different pathotypes is very useful for proper decisions in breeding programs. In this study, virulence of 32 A. rabiei isolates from different part of Iran were analyzed on seven chickpea differentials and grouped into six races based on 0–9 rating scale and susceptibility/resistant pattern of chickpea differentials. The least and most frequent races were race V and race I, respectively. Race V and VI showed highly virulence on most of differential, while race I showed least aggressiveness. Resistance pattern of 165 chickpea genotypes also were tested against six different A. rabiei races. ANOVA analysis showed high significant difference for isolate, chickpea genotypes and their interactions. Overall chickpea × isolate (race) interactions, 259 resistance responses (disease severity ≤ 4) were identified. Resistance spectra of chickpea genotypes showed more resistance rate to race I (49.70%) and race III (35.15%), while there were no resistance genotypes to race VI. Cluster analysis based on disease severity rate, grouped chickpea genotypes into four distinct clusters. Interactions between isolates or races used in this study, showed the lack of a genotype with complete resistance. Our finding for virulence pattern of A. rabiei and newly identified resistance sources could be considerably important for integration of ascochyta blight resistance genes into chickpea breeding programs and proper decision in future for germplasm conservation and diseases management.
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