Decrypting biocontrol functions and application modes by genomes data of three Trichoderma Strains/Species

IF 2.4 3区 生物学 Q3 GENETICS & HEREDITY Fungal Genetics and Biology Pub Date : 2024-03-20 DOI:10.1016/j.fgb.2024.103889
Shida Ji , Bin Liu , Jing Han , Ning Kong , Yongfeng Yang , Yucheng Wang , Zhihua Liu
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Abstract

Trichoderma is an excellent biocontrol agent, but most Trichoderma genomes remained at the scaffold level, which greatly limits the research of biocontrol mechanism. Here, we reported the chromosome-level genome of Trichoderma harzianum CGMCC20739 (Tha739), T. asperellum CGMCC11653 (Tas653) and T. atroviride CGMCC40488 (Tat488), they were assembled into 7 chromosomes, genome size were 40 Mb (10,611 genes), 37.3 Mb (10,102 genes) and 36.3 Mb (9,896 genes), respectively. The positive selected genes of three strains were associated to response to stimulus, signaling transduction, immune system and localization. Furthermore, the number of transcription factors in Tha739, Tas653 and Tat488 strains had significant difference, which may contribute to the differential biocontrol function and stress tolerance. The genes related to signal transduction and gene clusters related to antimicrobial compounds in Tha739 were more than those in Tas653 and Tat488, which showed Tha739 may keenly sense other fungi and quickly secret antimicrobial compounds to inhibit other fungi. Tha739 also contained more genes associated to detoxification, antioxidant and nutrition utilization, indicating it had higher stress-tolerance to hostile environments. And the substrate for synthesizing IAA in Tha739 was mainly 3-indole acetonitrile and indole acetaldehyde, but in Tat488, it was indole-3-acetamide, moreover, Tha739 secreted more phosphatase and phytase and was more related to soil phosphorus metabolism, Tat488 secreted more urease and was more related to soil nitrogen metabolism. These candidate genes related to biocontrol function and stress-tolerance laid foundations for construction of functional strains. All above proved the difference in biocontrol function of Tha739, Tas653 and Tat488 strains, however, the defects in individual strains could be compensated for through Trichoderma-biome during the commercial application process of biocontrol Trichoderma strains.

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通过三个毛霉菌株/菌种的基因组数据解密生物防治功能和应用模式。
毛霉是一种优良的生物防治菌剂,但大多数毛霉基因组仍停留在支架水平,极大地限制了生物防治机制的研究。本文报道了哈茨真菌(Trichoderma harzianum)CGMCC20739(Tha739)、阿斯佩尔真菌(T. asperellum)CGMCC11653(Tas653)和T. atroviride(T. atroviride)CGMCC40488(Tat488)的染色体级基因组,它们分别组装成7条染色体,基因组大小分别为40 Mb(10611个基因)、37.3 Mb(10102个基因)和36.3 Mb(9896个基因)。三个品系的正选基因与对刺激的反应、信号转导、免疫系统和定位有关。此外,Tha739、Tas653 和 Tat488 株系的转录因子数量存在显著差异,这可能是导致其生物防治功能和抗逆性不同的原因。Tha739的信号转导相关基因和抗菌化合物相关基因簇多于Tas653和Tat488,这表明Tha739能敏锐地感知其他真菌,并迅速分泌抗菌化合物来抑制其他真菌。Tha739还含有更多与解毒、抗氧化和营养利用相关的基因,表明它对恶劣环境有更强的抗压能力。Tha739合成IAA的底物主要是3-吲哚乙腈和吲哚乙醛,而Tat488合成IAA的底物是吲哚-3-乙酰胺;此外,Tha739分泌的磷酸酶和植酸酶较多,与土壤磷代谢关系密切;Tat488分泌的脲酶较多,与土壤氮代谢关系密切。这些与生物防治功能和抗逆性相关的候选基因为构建功能菌株奠定了基础。所有这些都证明了 Tha739、Tas653 和 Tat488 菌株在生物防治功能上的差异,但在生物防治毛霉菌株的商业应用过程中,单个菌株的缺陷可以通过毛霉生物群来弥补。
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来源期刊
Fungal Genetics and Biology
Fungal Genetics and Biology 生物-遗传学
CiteScore
6.20
自引率
3.30%
发文量
66
审稿时长
85 days
期刊介绍: Fungal Genetics and Biology, formerly known as Experimental Mycology, publishes experimental investigations of fungi and their traditional allies that relate structure and function to growth, reproduction, morphogenesis, and differentiation. This journal especially welcomes studies of gene organization and expression and of developmental processes at the cellular, subcellular, and molecular levels. The journal also includes suitable experimental inquiries into fungal cytology, biochemistry, physiology, genetics, and phylogeny. Fungal Genetics and Biology publishes basic research conducted by mycologists, cell biologists, biochemists, geneticists, and molecular biologists. Research Areas include: • Biochemistry • Cytology • Developmental biology • Evolutionary biology • Genetics • Molecular biology • Phylogeny • Physiology.
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