Researchers at ETH Zurich, a leading science and technology university in Switzerland, have developed an innovative glow-in-the-dark wood using bioluminescent fungi.
The fungi used, such as Armillaria mellea (commonly known as honey fungus), naturally emit a greenish glow in the dark.
By integrating the fungal mycelium into the wood’s structure, scientists created a hybrid material that glows without the need for external power sources like electricity or batteries.
The project is part of a broader movement in sustainable design and living architecture, where biological systems are incorporated into buildings and public infrastructure.
The wood-fungi composite remains biodegradable and renewable, making it a highly eco-friendly alternative to traditional lighting solutions.
It offers a soft, natural light ideal for pathways, parks, or residential streets, especially in places aiming to reduce energy consumption and light pollution.
This research showcases how biodesign could shape the future of urban environments, blending nature with modern needs.
Beyond aesthetics, it also holds practical value for off-grid areas, emergency lighting, and artistic applications in urban planning.
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Researchers at ETH Zurich, a leading science and technology university in Switzerland, have developed an innovative glow-in-the-dark wood using bioluminescent fungi.
The fungi used, such as Armillaria mellea (commonly known as honey fungus), naturally emit a greenish glow in the dark.
By integrating the fungal mycelium into the wood’s structure, scientists created a hybrid material that glows without the need for external power sources like electricity or batteries.
The project is part of a broader movement in sustainable design and living architecture, where biological systems are incorporated into buildings and public infrastructure.
The wood-fungi composite remains biodegradable and renewable, making it a highly eco-friendly alternative to traditional lighting solutions.
It offers a soft, natural light ideal for pathways, parks, or residential streets, especially in places aiming to reduce energy consumption and light pollution.
This research showcases how biodesign could shape the future of urban environments, blending nature with modern needs.
Beyond aesthetics, it also holds practical value for off-grid areas, emergency lighting, and artistic applications in urban planning.
