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与康氏木霉抑制小麦全蚀病有关的土壤化学和物理性质。

Soil Chemical and Physical Properties Associated with Suppression of Take-all of Wheat by Trichoderma koningii.

出版信息

Phytopathology. 1997 Nov;87(11):1118-24. doi: 10.1094/PHYTO.1997.87.11.1118.

DOI:10.1094/PHYTO.1997.87.11.1118
PMID:18945008
Abstract

ABSTRACT Trichoderma koningii, originally isolated from a take-all-suppressive soil in Western Australia, has been shown to protect wheat against take-all disease and increase grain yield in field trials in Australia, China, and the United States. However, within a region, the level of protection provided by T. koningii can dramatically vary between field sites. We evaluated suppression of take-all by this fungus in eight silt loams from the Pacific Northwest of the United States and the influence of 21 abiotic soil parameters on biocontrol activity. While T. koningii significantly increased plant growth and reduced disease severity in all eight silt loams, the level of protection varied significantly among the soils. Disease suppression was not associated with the conduciveness of a soil to take-all, but rather to the supportiveness of a soil to biocontrol activity. Biocontrol activity was positively correlated with iron, nitrate-nitrogen, boron, copper, soluble magnesium, and percent clay, and negatively correlated with soil pH and available phosphorus. Principal component factor analysis using these eight variables resulted in a three-component solution that accounted for 95% of the variation in disease rating. Least squares regression analysis (R(2) = 0.992) identified a model that included nitrate-nitrogen, soil pH, copper, and soluble magnesium, and described the variance in take-all suppression by T. koningii. Potential applications of these results include amending soil or inoculants with beneficial factors that may be lacking in the target soil and customizing biocontrol treatments for sites that have parameters predictive of a favorable environment for disease suppression.

摘要

摘要 最初从澳大利亚西澳大利亚州的抑病土壤中分离出来的长枝木霉已被证明能保护小麦免受立枯病的侵害,并能提高澳大利亚、中国和美国田间试验的谷物产量。然而,在一个地区,木霉菌对小麦的保护水平在不同的田间地点之间可能会有很大的差异。我们评估了该真菌在来自美国太平洋西北地区的 8 种粉壤土中对立枯病的抑制作用,以及 21 种非生物土壤参数对立枯病防治活性的影响。虽然长枝木霉在所有 8 种粉壤土中均显著增加了植物的生长并降低了病害的严重程度,但土壤之间的保护水平差异很大。病害的抑制与土壤是否有利于立枯病无关,而与土壤是否有利于生物防治活性有关。生物防治活性与铁、硝酸盐氮、硼、铜、可溶性镁和粘土百分比呈正相关,与土壤 pH 值和有效磷呈负相关。使用这 8 个变量进行主成分因子分析得到了一个三成分解,解释了病害评分变化的 95%。最小二乘回归分析(R²=0.992)确定了一个包含硝酸盐氮、土壤 pH 值、铜和可溶性镁的模型,并描述了长枝木霉对立枯病抑制作用的方差。这些结果的潜在应用包括用可能缺乏目标土壤的有益因子来改良土壤或接种剂,并为具有预测性有利环境的参数的地点定制生物防治处理。

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