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  1. Home
  2. Research
  3. Continuum
  4. Mycelium-Based Construction

Mycelium-Based Construction

Building materials grown from fungal networks as a low-carbon alternative to concrete and steel
Back to ContinuumView interactive version

The construction industry faces mounting pressure to reduce its massive environmental footprint, with cement production alone accounting for approximately 8% of global carbon emissions. Traditional building materials like concrete and steel are not only carbon-intensive to produce but also generate enormous amounts of waste at the end of a building's lifecycle. Mycelium-based construction materials emerge as a biological alternative that fundamentally reimagines how we grow, rather than manufacture, the components of our built environment. At its core, this technology harnesses the vegetative structure of fungi—the mycelium network—which naturally binds organic matter together as it grows. By feeding mycelium with agricultural waste substrates such as sawdust, hemp fibers, or corn stalks within controlled molds, manufacturers can cultivate building materials that take the desired shape within days to weeks. The mycelium's thread-like hyphae colonize the substrate, creating a dense, interconnected matrix that can be heat-treated to halt growth, resulting in a lightweight yet surprisingly strong composite material suitable for insulation panels, acoustic tiles, temporary structures, and even load-bearing applications when properly engineered.

Beyond carbon reduction, mycelium-based materials address several critical challenges in contemporary construction. These biocomposites are naturally fire-resistant, provide excellent thermal and acoustic insulation, and require minimal energy input during production compared to conventional materials. Perhaps most significantly, they offer a circular solution to construction waste: at the end of their useful life, mycelium materials can be composted, returning nutrients to the soil rather than occupying landfills for centuries. The self-repairing properties of certain mycelium formulations—where living networks can regenerate when damaged—open possibilities for buildings that maintain themselves over time. This approach also creates opportunities for localized, distributed manufacturing, as mycelium materials can be grown near construction sites using regional agricultural byproducts, reducing transportation emissions and supporting local economies.

Several architecture firms and research institutions have already demonstrated mycelium's viability through pavilions, interior installations, and prototype structures, though widespread commercial adoption remains in early stages. Current applications focus primarily on non-structural elements such as insulation, packaging replacements for construction materials, and decorative panels, where regulatory pathways are clearer. Research continues into enhancing the material's strength-to-weight ratios and developing standardized testing protocols that would enable broader structural applications. As building codes evolve to accommodate bio-based materials and as the construction industry seeks genuinely regenerative solutions, mycelium-based construction represents a convergence of biotechnology, sustainable design, and circular economy principles. The technology aligns with broader movements toward carbon-negative building practices and nature-based solutions, suggesting that future cities might literally be grown from the ground up, transforming construction from an extractive process into one that actively restores ecological systems.

TRL
4/9Formative
Impact
4/5
Investment
3/5
Category
Applications

Related Organizations

Ecovative logo
Ecovative

United States · Company

98%

The pioneer of mycelium technology platform (AirMycelium), providing the foundational biology for functional fungal applications.

Developer
Biohm logo
Biohm

United Kingdom · Startup

95%

A biomanufacturing company using mycelium for construction, researching the thermal and acoustic sensing properties of their materials.

Developer
Mogu logo
Mogu

Italy · Startup

92%

Develops mycelium-based materials for interior design and is researching 'smart' fungal materials that respond to the environment.

Developer
The Living logo
The Living

United States · Research Lab

88%

An Autodesk Studio that designed the 'Hy-Fi' tower at MoMA PS1, the first large-scale structure made of mycelium bricks.

Developer
Grown.bio logo
Grown.bio

Netherlands · Company

85%

A licensee of Ecovative's technology in Europe, producing mycelium packaging and interior design products.

Deployer
Mycocycle logo
Mycocycle

United States · Startup

85%

Uses fungi to remediate toxic construction waste (like asphalt shingles) and convert it into reusable raw materials.

Developer
NASA Planetary Defense Coordination Office logo
NASA Planetary Defense Coordination Office

United States · Government Agency

85%

The lead US agency office responsible for early detection of NEOs and leading missions like DART (Double Asteroid Redirection Test).

Researcher
Blast Studio logo
Blast Studio

United Kingdom · Startup

82%

Design studio using 3D printing to create architectural columns from mycelium.

Developer
Karlsruhe Institute of Technology (KIT) logo
Karlsruhe Institute of Technology (KIT)

Germany · University

80%

German research university contributing to atmospheric and ecosystem research.

Researcher

Supporting Evidence

Evidence data is not available for this technology yet.

Same technology in other hubs

Scaffold
Scaffold
Mycelium & Biobased Composites

Fungi-based and agricultural-waste materials for insulation, panels, and temporary formwork.

Cities
Cities
Mycelium Brick

Biodegradable building blocks grown from fungal networks and agricultural waste

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