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Cordyceps, Caterpillar Fungus · 2025 · Research Article

Medium relevance

Co-Culture with Two Soil Fungal Strains Enhances Growth and Secondary Metabolite Biosynthesis in Cordyceps takaomontana.

Ophiocordyceps sinensis

Energy & fatigueRespiratory
SpeciesCordyceps, Caterpillar Fungus
JournalJournal of fungi (Basel, Switzerland)
Year2025

Key points

  • Cordyceps takaomontana is a medicinal fungus with significant pharmacological value, but how soil microbes promote its growth remains unclear
  • Both F. paeoniae and B. minispora significantly promoted synnematal growth and enhanced antioxidant enzyme activities
  • Total triterpenoid content increased substantially
  • Metabolomics revealed that both fungi activated key metabolic pathways (including ABC transporters, mineral absorption, and protein digestion/absorption)
  • This work elucidates the metabolic mechanisms underlying growth promotion of C. takaomontana mediated by F. paeoniae and B. minispora as well as deciphers potential pharmacologically active metabolites
  • These findings provide a foundation for strategically improving artificial cultivation and developing functional microbial inoculants

Metadata-grounded summary

Citation abstract

Cordyceps takaomontana is a medicinal fungus with significant pharmacological value, but how soil microbes promote its growth remains unclear. We established a solid-state co-culture system involving C. takaomontana synnemata and its native soil fungi of Fusarium paeoniae and Bjerkandera minispora. Both F. paeoniae and B. minispora significantly promoted synnematal growth and enhanced antioxidant enzyme activities. Total triterpenoid content increased substantially. F. paeoniae markedly elevated levels of ergosterol peroxide, whereas B. minispora boosted accumulation of L-arabinose, ergotamine, and euphol. Metabolomics revealed that both fungi activated key metabolic pathways (including ABC transporters, mineral absorption, and protein digestion/absorption). F. paeoniae uniquely upregulated phenylalanine metabolism. This work elucidates the metabolic mechanisms underlying growth promotion of C. takaomontana mediated by F. paeoniae and B. minispora as well as deciphers potential pharmacologically active metabolites. These findings provide a foundation for strategically improving artificial cultivation and developing functional microbial inoculants.

Citation

Chen J, Ding M, He D, Zhang D, Wang M, Xiang Y, et al. (2025). Co-Culture with Two Soil Fungal Strains Enhances Growth and Secondary Metabolite Biosynthesis in Cordyceps takaomontana. Journal of fungi (Basel, Switzerland) https://doi.org/10.3390/jof11080559 PMID: 40863511

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