therapeutic action: cholesterol-lowering agents

Unlocking the magic in mycelium: Using synthetic biology to optimize filamentous fungi for biomanufacturing and sustainability

This comprehensive review explores how scientists can use modern genetic engineering tools to improve filamentous fungi (molds and mushrooms) for producing valuable products like antibiotics, enzymes, and sustainable food and materials. The authors explain that while these fungi naturally excel at breaking down plant material and producing useful compounds, they haven’t received as much attention from genetic engineers as other microorganisms. By applying techniques like CRISPR gene editing, computational modeling, and directed evolution, researchers can make fungal strains grow faster, produce higher yields, and use cheaper feedstocks, making industrial production more efficient and environmentally friendly.

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Comparative genome analysis of patulin-producing Penicillium paneum OM1 isolated from pears

Scientists sequenced the genome of a pear fungus called Penicillium paneum that produces patulin, a toxic compound found in moldy apples and pears. By analyzing its genetic blueprint, researchers identified 33 different toxin-producing gene clusters, with special focus on the 15 genes responsible for patulin production. The findings reveal which genes P. paneum uses to make patulin and how they compare to other fungal species, potentially helping develop better ways to prevent patulin contamination in fruit and fruit products.

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Comparative genome analysis of patulin-producing Penicillium paneum OM1 isolated from pears

This research examined the genetic makeup of a mold called Penicillium paneum that contaminates pears and apples by producing a toxic substance called patulin. Scientists sequenced the entire genome and identified all the genes responsible for patulin production. They found that this mold has 33 different gene clusters for producing various toxic compounds, with the patulin-producing genes being highly similar to those in other related molds. This genetic knowledge could help develop better strategies to prevent patulin contamination in fruit crops.

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