Research Keyword: genome editing

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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Towards engineering agaricomycete fungi for terpenoid production

Mushroom-forming fungi, particularly species like shiitake and oyster mushrooms, naturally produce valuable compounds called terpenoids used in medicines, food, and cosmetics. Scientists are learning to genetically engineer these fungi to produce even larger amounts of these beneficial compounds, potentially making them as important to biotechnology as baker’s yeast and mold have been historically. This could create new sustainable sources for medicinal compounds and industrial chemicals.

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Providing a toolbox for genomic engineering of Trichoderma aggressivum

Scientists have developed a set of techniques to genetically modify the fungus Trichoderma aggressivum, which is usually known for ruining mushroom crops. This genetic toolkit allows researchers to edit genes in this fungus to study how it produces various compounds and why it affects mushrooms. By using modern gene-editing technology called CRISPR, researchers can now create specific mutations and study the fungus’s useful properties, such as its potential to protect crops or promote plant growth.

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Plants, fungi, and antifungals: A little less talk, a little more action

Plants and fungi communicate through small chemical molecules, and scientists are discovering that understanding this dialogue could lead to new antifungal medicines. Researchers found that a plant hormone called strigolactone affects a specific fungal protein involved in nutrient uptake, suggesting this could be a target for new drugs. By using baker’s yeast as a laboratory model, scientists can study how fungal cells respond to plant chemicals and identify new ways to fight dangerous fungal infections that are becoming resistant to current treatments.

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Fungal Innovations—Advancing Sustainable Materials, Genetics, and Applications for Industry

Fungi can be engineered to create sustainable, eco-friendly materials for construction, textiles, and packaging. Using advanced genetic tools and controlled growing conditions, scientists can customize fungal materials to have specific properties like flexibility or rigidity. These mycelium-based materials are biodegradable, renewable, and offer promising alternatives to traditional synthetic and conventional materials, helping reduce our dependence on petroleum-based products.

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Strategies for Enhancing Resilience in Horticultural Crops Against Combined Abiotic Stresses

As climate change brings more extreme weather, vegetable and fruit crops face multiple environmental challenges simultaneously, like drought, high salt content, and heat. Scientists have developed practical approaches to make these crops stronger, including breeding tougher varieties, grafting plants onto hardy rootstocks, and applying special nanoparticles and natural plant boosters. These combined strategies help crops survive harsh conditions while maintaining good yields and quality, supporting food security for growing populations worldwide.

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Improved Protoplast Production Protocol for Fungal Transformations Mediated by CRISPR/Cas9 in Botrytis cinerea Non-Sporulating Isolates

Scientists have developed a better method to isolate protoplasts (fungal cells without cell walls) from non-sporulating varieties of gray mold fungus. By optimizing the incubation time, culture container, and enzyme used, they produced more viable protoplasts that can regenerate and be genetically modified. This advancement allows researchers to use CRISPR gene-editing technology to understand and potentially control gray mold, which causes significant crop losses worldwide.

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