Trichoderma longibrachiatum’s Secondary Metabolite-A Review on Potential Compounds for Plant Growth and Biological Control for Plant Pathogens

Priya Ramasamy, Balachandar Subbu, Prabhakaran Narayanasamy
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Abstract

Indeed, a significant amount of agricultural production has been lost due to plant diseases that were caused by phytopathogens. Chemical pesticides are applied to protect the crops from the reduce substantial yield loss. Improved crop yields have been achieved for a long time through the use of synthetic chemical pesticides. However, the use of these pesticides may one day be limited due to their negative effects on human health and the environment. Global ecological awareness of the use of natural products and microorganisms to manage plant diseases has led to the use of beneficial antagonistic bacteria and fungi in different methods. Several microorganisms limit pathogen growth or indirectly increase plant-mediated resistance. Trichoderma is one of the most effective biological control agents for soil and foliar diseases. The Trichoderma spp., biocontrol potential depends on number of mechanisms such as antibiosis, mycoparasitism and the host induced systemic resistance. As typically recognised saprophytic fungi, Trichoderma species generate and exude a wide range of secondary metabolites into their environment while having little nutritional requirements. The non-ribosomal peptides (peptobiols, siderophores, gliotoxin and glovirin), polyketides, terpenes, pyrones and isocyanine are some of the Trichoderma spp., derived secondary metabolites. These metabolites are associated in different biological activities like biocontrol activities and or microbial intrractions. Since, it’s becoming more important to extract these molecules from safer, biodegradable antifungal solutions, which may be the next generation of biological pesticides, studies on Trichoderma’s antifungal active components are intensifying. This article is reviewed particularly about the major secondary metabolites that are produced by the beneficial fungus Trichoderma longibrachiatum and enhance the present knowledge on the potential compounds for plants.
长叶毛霉的次生代谢物--关于促进植物生长和对植物病原体进行生物防治的潜在化合物的综述
事实上,由于植物病原体引起的植物病害,农业生产损失惨重。使用化学农药是为了保护作物,减少大量减产。长期以来,通过使用合成化学农药,作物产量得到了提高。然而,由于这些农药对人类健康和环境的负面影响,有朝一日这些农药的使用可能会受到限制。全球生态意识到应使用天然产品和微生物来控制植物病害,这促使人们以不同的方法使用有益的拮抗细菌和真菌。有几种微生物限制了病原体的生长或间接提高了植物介导的抗性。毛霉是土壤和叶面病害最有效的生物防治剂之一。毛霉菌属的生物防治潜力取决于多种机制,如抗生、寄生和宿主诱导的系统抗性。毛霉属真菌是公认的典型的萎缩性真菌,能产生并向环境中渗出多种次级代谢产物,而对营养的需求却很少。非核糖体肽(peptobiols、siderophores、gliotoxin 和 glovirin)、多酮类、萜烯类、吡喃类和异氰基是毛霉属衍生的一些次生代谢物。这些代谢物具有不同的生物活性,如生物防治活性和微生物侵染活性。由于从更安全、可生物降解的抗真菌溶液中提取这些分子变得越来越重要,它们可能成为下一代生物农药,因此对毛霉抗真菌活性成分的研究正在不断加强。本文特别对有益真菌长链毛霉产生的主要次生代谢物进行了综述,并增进了目前对植物潜在化合物的了解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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