Metabolome and transcriptome unveil the mechanism of light on regulating beauvericin synthesis in Cordyceps chanhua

Cordyceps chanhua, an important cordycipitoid medical mushroom with wide use in Asia, has gained attention for its bioactive component beauvericin (BEA), which is of medicinal value as a drug lead, but also of food safety risk. Recent observations by our group revealed a significant decrease of BEA...

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Veröffentlicht in:Fungal biology 2024-11, Vol.128 (7), p.2102-2112
Hauptverfasser: Wen, Zhiyuan, Liu, Zhimin, Bu, Haifen, Liu, Yanwen, Zhu, Jiahua, Hu, Fenglin, Li, Zengzhi, Huang, Bo, Peng, Fan
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container_end_page 2112
container_issue 7
container_start_page 2102
container_title Fungal biology
container_volume 128
creator Wen, Zhiyuan
Liu, Zhimin
Bu, Haifen
Liu, Yanwen
Zhu, Jiahua
Hu, Fenglin
Li, Zengzhi
Huang, Bo
Peng, Fan
description Cordyceps chanhua, an important cordycipitoid medical mushroom with wide use in Asia, has gained attention for its bioactive component beauvericin (BEA), which is of medicinal value as a drug lead, but also of food safety risk. Recent observations by our group revealed a significant decrease of BEA content in C. chanhua when exposed to light, but the underlying regulatory mechanisms remain elusive. In this study, a comprehensive approach combining metabolomics and transcriptomics was employed to investigate the effects of white light on the secondary metabolism of C. chanhua for elucidation of the influence of light on BEA biosynthesis in this fungus. The result showed that the genes and metabolites involved in the synthesis of D-hydroxyisovaleric acid, a precursor of BEA synthesis, were down-regulated under light exposure, while those associated with the synthesis of phenylalanine, another precursor of BEA synthesis, were up-regulated leading to elevated phenylalanine levels. It suggested that the suppressive effect of light on BEA synthesis in C. chanhua occurred primarily through the inhibition of D-hydroxyisovaleric acid synthesis, while the enhanced phenylalanine biosynthesis likely directed towards other metabolic pathway such as pigment synthesis. These results contributed to a better understanding on how light modulates the secondary metabolism of C. chanhua and provided valuable guidance for optimizing BEA production in cultivation practices. [Display omitted] •Light inhibits the production of beauvericin (BEA) in Cordyceps chanhua.•Light reduces BEA by suppressing D-hydroxyisovaleric acid, a precursor.•Light boosts phenylalanine, another precursor, but changes its metabolic path.•Light exposure induces oxidative stress and stimulates the consumption of BEA.
doi_str_mv 10.1016/j.funbio.2024.08.005
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Recent observations by our group revealed a significant decrease of BEA content in C. chanhua when exposed to light, but the underlying regulatory mechanisms remain elusive. In this study, a comprehensive approach combining metabolomics and transcriptomics was employed to investigate the effects of white light on the secondary metabolism of C. chanhua for elucidation of the influence of light on BEA biosynthesis in this fungus. The result showed that the genes and metabolites involved in the synthesis of D-hydroxyisovaleric acid, a precursor of BEA synthesis, were down-regulated under light exposure, while those associated with the synthesis of phenylalanine, another precursor of BEA synthesis, were up-regulated leading to elevated phenylalanine levels. It suggested that the suppressive effect of light on BEA synthesis in C. chanhua occurred primarily through the inhibition of D-hydroxyisovaleric acid synthesis, while the enhanced phenylalanine biosynthesis likely directed towards other metabolic pathway such as pigment synthesis. These results contributed to a better understanding on how light modulates the secondary metabolism of C. chanhua and provided valuable guidance for optimizing BEA production in cultivation practices. [Display omitted] •Light inhibits the production of beauvericin (BEA) in Cordyceps chanhua.•Light reduces BEA by suppressing D-hydroxyisovaleric acid, a precursor.•Light boosts phenylalanine, another precursor, but changes its metabolic path.•Light exposure induces oxidative stress and stimulates the consumption of BEA.</description><identifier>ISSN: 1878-6146</identifier><identifier>DOI: 10.1016/j.funbio.2024.08.005</identifier><identifier>PMID: 39384280</identifier><language>eng</language><publisher>Netherlands: Elsevier Ltd</publisher><subject>Asia ; Beauvericin ; bioactive compounds ; biochemical pathways ; biosynthesis ; Cordyceps ; Cordyceps - genetics ; Cordyceps - growth &amp; development ; Cordyceps - metabolism ; Cordyceps - radiation effects ; Cordyceps chanhua ; Depsipeptides - biosynthesis ; Depsipeptides - metabolism ; food safety ; Gene Expression Profiling ; Gene Expression Regulation, Fungal ; Light ; metabolites ; Metabolome ; Metabolomics ; mushrooms ; mycology ; phenylalanine ; risk ; Secondary Metabolism ; Transcriptome ; Transcriptomics ; white light</subject><ispartof>Fungal biology, 2024-11, Vol.128 (7), p.2102-2112</ispartof><rights>2024 British Mycological Society</rights><rights>Copyright © 2024 British Mycological Society. 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subjects Asia
Beauvericin
bioactive compounds
biochemical pathways
biosynthesis
Cordyceps
Cordyceps - genetics
Cordyceps - growth & development
Cordyceps - metabolism
Cordyceps - radiation effects
Cordyceps chanhua
Depsipeptides - biosynthesis
Depsipeptides - metabolism
food safety
Gene Expression Profiling
Gene Expression Regulation, Fungal
Light
metabolites
Metabolome
Metabolomics
mushrooms
mycology
phenylalanine
risk
Secondary Metabolism
Transcriptome
Transcriptomics
white light
title Metabolome and transcriptome unveil the mechanism of light on regulating beauvericin synthesis in Cordyceps chanhua
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