Research Topic: sustainable packaging

From purposeless residues to biocomposites: A hyphae made connection

Researchers developed eco-friendly packaging materials using mushroom mycelium and agricultural waste from fruit and sugar cane processing. Two native Colombian fungal species were grown on leftover fruit peels and bagasse to create lightweight, biodegradable composites. From just 50 kilograms of fruit peel waste, nearly 1,840 cups can be manufactured, offering a sustainable alternative to plastic packaging that naturally decomposes after use.

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Temporal characterization of biocycles of mycelium-bound composites made from bamboo and Pleurotus ostreatus for indoor usage

Scientists created a sustainable building material by growing oyster mushroom fungus on bamboo fibers. The material was strong enough for packaging and could be composted after use to enrich soil, completing a full cycle in about 7 months. By adding a natural beeswax coating, the material lasted longer while remaining completely biodegradable. This proof-of-concept demonstrates how fungal materials could replace synthetic plastics in a circular economy.

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Valorization of Mushroom Residues for Functional Food Packaging

Mushrooms produce large amounts of waste during growth and processing, but these leftovers contain valuable compounds that can protect food and extend shelf life. Scientists are developing ways to extract these beneficial compounds and add them to eco-friendly packaging films, creating materials that fight bacteria and oxidation naturally. This approach transforms mushroom waste into useful products while reducing environmental pollution, making food packaging safer and more sustainable for consumers.

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Improving the Physical and Mechanical Properties of Mycelium-Based Green Composites Using Paper Waste

Researchers created environmentally friendly materials called mycelium-based composites by growing mushroom mycelia on agricultural waste like corn husks mixed with recycled paper waste. When they added 20% paper waste to corn husk composites, the materials became stronger and more durable, making them suitable for packaging and decorative items. This approach cleverly recycles paper waste while creating sustainable alternatives to plastic-based materials.

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Advancing Food Preservation: Sustainable Green-AgNPs Bionanocomposites in Paper-Starch Flexible Packaging for Prolonged Shelf Life

Researchers developed an eco-friendly food packaging material by coating paper with corn starch and tiny silver particles created through green chemistry methods. This innovative packaging significantly improved food durability, reducing weight loss in fresh produce like tomatoes and grapes by 6-8% over six days. The material is completely biodegradable and poses no safety concerns, making it a sustainable alternative to traditional plastic packaging.

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

Fungi can be engineered to create sustainable, eco-friendly materials that could replace traditional plastics and leather. Scientists are using advanced genetic tools to control how fungi grow and what they produce, enabling the creation of customized materials with specific properties. These fungal-based materials are biodegradable, require less water and energy to produce, and show promise for applications in packaging, clothing, and building materials. With improved manufacturing processes and genetic engineering, fungi could revolutionize how we make everyday products.

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The Effects of the Substrate Length and Cultivation Time on the Physical and Mechanical Properties of Mycelium-Based Cushioning Materials from Salix psammophila and Peanut Straw

Researchers developed eco-friendly cushioning materials by growing mushroom mycelium (fungal networks) on agricultural waste like willow and peanut straw. These materials match the performance of plastic foam used in packaging but are completely biodegradable and made from renewable resources. By adjusting how long the mushrooms grow and the size of the substrate pieces, scientists can control the final product’s strength, flexibility, and water resistance.

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