Theobald Sebastian, Vesth Tammi C, Geib Elena, Nybo Jane L, Frisvad Jens C, Larsen Thomas O, Kuo Alan, LaButti Kurt, Lyhne Ellen K, Kjærbølling Inge, Ledsgaard Line, Barry Kerrie, Clum Alicia, Chen Cindy, Nolan Matt, Sandor Laura, Lipzen Anna, Mondo Stephen, Pangilinan Jasmyn, Salamov Asaf, Riley Robert, Wiebenga Ad, Müller Astrid, Kun Roland S, Dos Santos Gomes Ana Carolina, Henrissat Bernard, Magnuson Jon K, Simmons Blake A, Mäkelä Miia R, Mortensen Uffe H, Grigoriev Igor V, Brock Matthias, Baker Scott E, de Vries Ronald P, Andersen Mikael R
Department of Biotechnology and Bioengineering, Technical University of Denmark, 2800 Kongens Lyngby, Denmark.
School of Life Sciences, University of Nottingham, Nottingham NG7 2RD, UK.
J Fungi (Basel). 2024 Jul 22;10(7):507. doi: 10.3390/jof10070507.
has attracted interest due to its application in industrial biotechnology, particularly for the production of itaconic acid and bioactive secondary metabolites. As related species also seem to possess a prosperous secondary metabolism, they are of high interest for genome mining and exploitation. Here, we present draft genome sequences for six species from section and one species from section . Whole-genome phylogeny confirmed that section is monophyletic. Genome analyses identified between 70 and 108 key secondary metabolism genes in each of the genomes of section , the highest rate found in the genus so far. The respective enzymes fall into 167 distinct families with most of them corresponding to potentially unique compounds or compound families. Moreover, 53% of the families were only found in a single species, which supports the suitability of species from section for further genome mining. Intriguingly, this analysis, combined with heterologous gene expression and metabolite identification, suggested that species from section use a strategy for UV protection different to other species from the genus . Section contains a complete plant polysaccharide degrading potential and an even higher cellulolytic potential than other Aspergilli, possibly facilitating additional applications for these species in biotechnology.
由于其在工业生物技术中的应用,特别是在衣康酸和生物活性次生代谢产物的生产中,它已引起了人们的关注。由于相关物种似乎也拥有丰富的次生代谢,它们对于基因组挖掘和开发具有很高的研究价值。在此,我们展示了来自某组的六个物种和来自另一组的一个物种的基因组草图序列。全基因组系统发育分析证实某组是单系的。基因组分析在某组的每个基因组中鉴定出70至108个关键次生代谢基因,这是迄今为止在该属中发现的最高比例。相应的酶分为167个不同的家族,其中大多数对应于潜在的独特化合物或化合物家族。此外,53%的家族仅在单个物种中发现,这支持了某组物种用于进一步基因组挖掘的适用性。有趣的是,该分析与异源基因表达和代谢物鉴定相结合,表明某组的物种使用了一种与该属其他物种不同的紫外线保护策略。某组具有完整的植物多糖降解潜力,并且比其他曲霉菌具有更高的纤维素分解潜力,这可能有助于这些物种在生物技术中的更多应用。