长柄木霉TL6和TL13对豌豆枯萎病的拮抗作用

Thomas Afriyie Boakye, Huixia Li, Richard Osei, Solomon Boamah, Zhang Min, Chunhui Ni, Jin Wu, Mingming Shi, Wanqiang Qiao
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引用次数: 1

摘要

中国雪豌豆根腐病是由茄枯萎病(Fusarium solani, FSH)和avenaceum (Fusarium avenaceum, FAH)引起的,影响雪豌豆的生产。针对FSH和FAH的化学控制方法对环境有毒性,可在持久性应用中开发抗性。因此,需要另一种方法来控制这些病原体。本研究主要从生理、生化和分子水平研究长尾木霉TL6和TL13菌株,FSH和FAH的支寄生机制,以及FSH和FAH胁迫下雪豌豆幼苗的促生长潜力。第7天,TL6对FSH和FAH的平均抑制率分别为54.58%和69.16%。同样,TL13对FSH和FAH的平均抑制率在第7天分别为59.06%和71.27%。与对照组相比,TL13和TL6联合FSH和FAH分别使疾病严重程度降低86.6、81.6、57.60%和60.90%。接种不含TL6和TL13的FSH和FAH后,豌豆叶片丙二醛(MDA)和过氧化氢(H2O2)含量分别比对照提高64.8%、66.0、64.4和65.9%。而FSH和FAH与TL6和TL13联合使用,MDA和H2O2含量分别比对照降低了75.6、76.8、70.0和76.4%。此外,TL6 + FSH和TL6 + FAH联合处理的超氧化物歧化酶(SOD)、过氧化物酶(POD)和过氧化氢酶(CAT)活性分别比对照提高了60.5、64.7和60.3%,分别提高了60.0、64.9和56.6%。同样,与对照组相比,TL13 + FSH和TL13 + FAH组合使SOD、POD和CAT的活性分别提高了69.7、68.6和65.6%,分别提高了70.10、69.5和65.8%。综上所述,用TL6和TL13预处理雪豌豆种子可促进雪豌豆幼苗生长,抑制FSH和FAH根腐病,提高抗氧化酶活性,激活植物防御机制。与TL6菌株相比,TL13菌株在抑制病原菌和促进雪豌豆生长方面表现最好。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Antagonistic Effect of <i>Trichoderma longibrachiatum</i> (TL6 and TL13) on <i>Fusarium solani</i> and <i>Fusarium avenaceum</i> Causing Root Rot on Snow Pea Plants.

Antagonistic Effect of <i>Trichoderma longibrachiatum</i> (TL6 and TL13) on <i>Fusarium solani</i> and <i>Fusarium avenaceum</i> Causing Root Rot on Snow Pea Plants.

Antagonistic Effect of <i>Trichoderma longibrachiatum</i> (TL6 and TL13) on <i>Fusarium solani</i> and <i>Fusarium avenaceum</i> Causing Root Rot on Snow Pea Plants.

Antagonistic Effect of Trichoderma longibrachiatum (TL6 and TL13) on Fusarium solani and Fusarium avenaceum Causing Root Rot on Snow Pea Plants.

Snow pea root rot in China is caused by Fusarium solani (FSH) and Fusarium avenaceum (FAH), which affect snow pea production. The chemical control methods used against FSH and FAH are toxic to the environment and resistance may be developed in persistence applications. Therefore, an alternative approach is needed to control these pathogens. This study focuses on Trichoderma longibrachiatum strains (TL6 and TL13), mycoparasitic mechanisms of FSH and FAH, as well as growth-promoting potentials on snow pea seedlings under FSH and FAH stress at the physiological, biochemical, and molecular levels. The average inhibitory rates of TL6 against FSH and FAH were 54.58% and 69.16%, respectively, on day 7. Similarly, TL13 average inhibitory rates against FSH and FAH were 59.06% and 71.27%, respectively, on day 7. The combined TL13 and TL6 with FSH and FAH reduced disease severity by 86.6, 81.6, 57.60, and 60.90%, respectively, in comparison to the controls. The snow pea plants inoculated with FSH and FAH without TL6 and TL13 increased malondialdehyde (MDA) and hydrogen peroxide (H2O2) contents in the leaves by 64.8, 66.0, 64.4 and 65.9%, respectively, compared to the control. However, the combined FSH and FAH with TL6 and TL13 decreased the MDA and H2O2 content by 75.6, 76.8, 70.0, and 76.4%, respectively, in comparison to the controls. In addition, the combined TL6 + FSH and TL6 + FAH increased the activity of superoxide dismutase (SOD), peroxidase (POD), and catalase (CAT) by 60.5, 64.7, and 60.3%, respectively, and 60.0, 64.9, and 56.6%, respectively, compared to the controls. Again, compared to the controls, the combined TL13 + FSH and TL13 + FAH increased the activity of SOD, POD, and CAT by 69.7, 68.6, and 65.6%, respectively, and 70.10, 69.5, and 65.8%, respectively. Our results suggest that the pretreatment of snow pea seeds with TL6 and TL13 increases snow pea seedling growth, controls FSH and FAH root rot, increases antioxidant enzyme activity, and activates plant defense mechanisms. The TL13 strain had the greatest performance in terms of pathogen inhibition and snow pea growth promotion compared to the TL6 strain.

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