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Writer's pictureAkshata Sutar

UK Researchers Pioneer Mycocrete as a Game-Changing Building Material

In the realm of sustainable construction, a groundbreaking development is taking place as UK researchers unveil mycocrete, a revolutionary composite material made from mycelium, the intricate root network of fungi. This exceptional innovation has the potential to transform the construction industry, offering eco-friendly alternatives that are stronger and more versatile than traditional biomaterials.


Gone are the days of traditional building materials that contribute to environmental degradation. Enter mycocrete, the sustainable building material poised to revolutionize the industry. By injecting mycelium into a knitted textile framework, scientists have created a composite material that surpasses previous biomaterials in terms of strength, versatility, and form.


The team of scientists, led by Dr. Jane Scott from Newcastle University, collaborated with designers and engineers in the Living Textiles Research Group under the umbrella of the Hub for Biotechnology in the Built Environment. Their goal was to find a way to grow construction materials using knitted molds and mycelium, aiming to unleash the full potential of this organic material while minimizing its environmental impact.





The beauty of knitted textiles lies in their flexibility, formability, and ability to create 3D structures without seams or waste. According to Dr. Scott, "Knitting is an incredibly versatile 3D manufacturing system," which makes it the perfect match for mycelium-based construction materials.


To create mycocrete, the researchers developed a mycelium mixture that included paper powder, paper fiber clumps, water, glycerin, and xanthan gum. This paste was carefully injected into the knitted formwork using an injection gun, ensuring consistent packing and shape retention. By utilizing knitted textile molds, the researchers overcame one of the major limitations of previous mycelium composites—the need for oxygen to facilitate growth—thus enabling the creation of larger and more complex structures.


The results of their efforts were astonishing. The mycocrete samples demonstrated superior strength compared to conventional mycelium composites, showcasing the immense potential of this sustainable building material. Furthermore, the porous knitted fabric of the formwork provided excellent oxygen availability, leading to consistent and predictable manufacturing results.


The team's groundbreaking prototype structure, called BioKnit, stands as a testament to the tremendous possibilities of mycocrete. This freestanding dome, constructed without any joins that could weaken its integrity, opens up new avenues for biofabricated architecture. As Dr. Scott explains, "The mechanical performance of the mycocrete used in combination with permanent knitted formwork is a significant result, and a step towards the use of mycelium and textile biohybrids within construction."


The potential applications of mycocrete are vast. As the research advances, the formulation and technology behind mycocrete can be adapted to various construction needs, pushing the boundaries of sustainable architecture. The day may come when our buildings are not only eco-friendly but also imbued with the unique aesthetic of mycelium combined with bio-based materials like wool, sawdust, and cellulose.


The foray into mycocrete is a testament to the power of collaboration between scientific research and design innovation. This remarkable breakthrough in sustainable construction promises a greener, more sustainable future for the industry, where buildings are not just functional structures but harmonious creations with nature.

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