Role of Carbon Sources in the Growth, Biomass Production and Bioactive Compound Formation of Ophiocordyceps militaris

Ophiocordyceps militaris is an entomopathogenic medicinal fungus that has attracted increasing scientific interest due to its nutritional content and capacity to generate a variety of bioactive substances, especially cordycepin, adenosine, carotenoids, polysaccharides, and other secondary metabolites. Environmental and nutritional factors that have a important impact on Ophiocordyceps militaris growth and metabolite production, despite the fact that controlled cultivation of this organism suggestions a reliable technique to produce the biomass and bioactive components of the fungus. Carbon sources are essential for cellular growth and biosynthetic activities because they supply energy and carbon skeletons. Substrates such as sucrose, glucose, lactose, fructose, starch, maltose, and other carbohydrates have been examined in relation to mycelial growth and metabolite production; the reactions may depend on the strain, concentration, and cultivation conditions. The biological traits and dietary needs of Ophiocordyceps militaris are described in this work, with an emphasis on the function of carbon sources in the synthesis of mycelial biomass and bioactive chemicals. Carbon concentration, temperature, carbon-to-nitrogen ratio, cultivation period, pH, inoculum size, aeration, medium structure, and shaking all have an impact on carbon consumption. Strain-dependent differences, a lack of knowledge about carbon-controlled metabolic pathways, challenges with large-scale production and uniformity, and the expense and unpredictability of growing materials are some of the current issues. Future studies should include carbon-source optimization, improved fermentation technologies, metabolic engineering, and sustainable cultured materials with multi-omics approaches. Combining these approaches can boost biomass yield, produce more bioactive compounds, and create economical and sustainable Ophiocordyceps militaris cultivation systems.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-27
DOI
https://doi.org/10.5281/zenodo.23697243
Primary Topic
Fungal Biology and Applications
Type
article
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article

Role of Carbon Sources in the Growth, Biomass Production and Bioactive Compound Formation of Ophiocordyceps militaris

Naveen Khatri, Nishant
Zenodo (CERN European Organization for Nuclear Research)
Fungal Biology and Applications
article

Role of Carbon Sources in the Growth, Biomass Production and Bioactive Compound Formation of Ophiocordyceps militaris

Naveen Khatri, Nishant
article en

Abstract

Ophiocordyceps militaris is an entomopathogenic medicinal fungus that has attracted increasing scientific interest due to its nutritional content and capacity to generate a variety of bioactive substances, especially cordycepin, adenosine, carotenoids, polysaccharides, and other secondary metabolites. Environmental and nutritional factors that have a important impact on Ophiocordyceps militaris growth and metabolite production, despite the fact that controlled cultivation of this organism suggestions a reliable technique to produce the biomass and bioactive components of the fungus. Carbon sources are essential for cellular growth and biosynthetic activities because they supply energy and carbon skeletons. Substrates such as sucrose, glucose, lactose, fructose, starch, maltose, and other carbohydrates have been examined in relation to mycelial growth and metabolite production; the reactions may depend on the strain, concentration, and cultivation conditions. The biological traits and dietary needs of Ophiocordyceps militaris are described in this work, with an emphasis on the function of carbon sources in the synthesis of mycelial biomass and bioactive chemicals. Carbon concentration, temperature, carbon-to-nitrogen ratio, cultivation period, pH, inoculum size, aeration, medium structure, and shaking all have an impact on carbon consumption. Strain-dependent differences, a lack of knowledge about carbon-controlled metabolic pathways, challenges with large-scale production and uniformity, and the expense and unpredictability of growing materials are some of the current issues. Future studies should include carbon-source optimization, improved fermentation technologies, metabolic engineering, and sustainable cultured materials with multi-omics approaches. Combining these approaches can boost biomass yield, produce more bioactive compounds, and create economical and sustainable Ophiocordyceps militaris cultivation systems.

Zenodo (CERN European Organization for Nuclear Research)
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Fungal Biology and Applications
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