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Systematic metadata analysis of brown rot fungi gene expression data reveals the genes involved in Fenton’s reaction and wood decay process

机译:对褐腐真菌基因表达数据的系统元数据分析揭示了与芬顿反应和木材腐烂过程有关的基因

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摘要

Brown-rot fungi are rapid holocellulose degraders and are the most predominant degraders of coniferous wood products in North America. Brown-rot fungi degrades wood by both enzymatic (plant biomass degrading carbohydrate active enzymes-CAZymes) and non-enzymatic systems (Fenton’s reaction) mechanisms. Identifying the genes and molecular mechanisms involved in Fenton’s reaction would significantly improve our understanding about brown-rot decay. Our present study identifies the common gene expression patterns involved in brown rot decay by performing metadata analysis of fungal transcriptome datasets. We have also analyzed and compared the genome-wide annotations (InterPro and CAZymes) of the selected brown rot fungi. Genes encoding for various oxidoreductases, iron homeostasis, and metabolic enzymes involved in Fenton’s mechanism were found to be significantly expressed among all the brown-rot fungal datasets. Interestingly, a higher number of hemicellulases encoding genes were differentially expressed among all the datasets, while a fewer number of cellulases and peroxidases were expressed (especially haem peroxidase and chloroperoxidase). Apart from these lignocellulose degrading enzymes genes encoding for aldo/keto reductases, 2-nitro dioxygenase, aromatic-ring dioxygenase, dienelactone hydrolase, alcohol dehydrogenase, major facilitator superfamily, cytochrome-P450 monoxygenase, cytochrome b5, and short-chain dehydrogenase were common and differentially up regulated among all the analyzed brown-rot fungal datasets.
机译:褐腐真菌是快速的全纤维素降解剂,是北美针叶木制品最主要的降解剂。褐腐真菌通过酶促(植物生物质降解碳水化合物活性酶-CAZymes)和非酶促系统(芬顿反应)的机制降解木材。确定芬顿反应涉及的基因和分子机制将大大改善我们对褐腐病衰变的理解。我们的研究通过对真菌转录组数据集进行元数据分析,确定了褐腐病腐烂中常见的基因表达模式。我们还分析并比较了所选褐腐真菌的全基因组注释(InterPro和CAZymes)。发现在芬顿机制中涉及各种氧化还原酶,铁稳态和代谢酶的编码基因在所有褐腐真菌数据集中均得到了显着表达。有趣的是,在所有数据集中差异表达的半纤维素酶编码基因数量更多,而表达的纤维素酶和过氧化物酶数量较少(尤其是血红素过氧化物酶和氯过氧化物酶)。除了这些木质纤维素降解酶以外,编码醛基/酮基还原酶,2-硝基双加氧酶,芳环双加氧酶,二内酯水解酶,醇脱氢酶,主要促进子超家族,细胞色素P450单加氧酶,细胞色素b5和短链脱氢酶的基因是常见的。在所有分析的褐腐真菌数据集中差异上调。

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