science
Swiss Scientists Pioneer Living Fungal Material
EMPA researchers develop groundbreaking material from common split-leaf fungus, opening new possibilities for sustainable products in films, sensors, and food additives.

Breakthrough Discovery
In a groundbreaking development, Swiss researchers at EMPA (Swiss Federal Laboratories for Materials Science and Technology) have successfully created a revolutionary living material derived from the common split-leaf fungus. This innovative breakthrough, announced in 2025, represents a significant advancement in sustainable materials science. The unique aspect of this development lies in the material's ability to remain alive and continuously produce beneficial molecules, setting it apart from traditional synthetic materials.
Scientific Innovation
The EMPA research team took an innovative approach by utilizing the mycelium in its complete form, rather than following conventional methods of cleaning and chemical treatment. The material's foundation is built upon the fungus's extracellular matrix - a sophisticated network of fiber-like molecules, proteins, and biological substances secreted by living cells. This novel approach maintains the material's living properties while enhancing its practical applications. The research has been validated through publication in the prestigious scientific journal Advanced Materials, highlighting its significance in the field.
Practical Applications
The versatility of this living fungal material opens up numerous practical applications across various industries. Initial tests have demonstrated its potential in creating compostable films, which could serve as sustainable alternatives to conventional plastics. The material also shows promise in developing moisture sensors and as an emulsifier in food and cosmetic products. This wide range of applications showcases the material's potential to revolutionize multiple sectors while maintaining environmental consciousness.
Environmental Impact
The development of this living fungal material represents a significant step forward in sustainable innovation. Unlike traditional materials that require chemical treatment to enhance their stability and flexibility, this natural alternative maintains its properties while remaining biodegradable. This characteristic addresses one of the key challenges in sustainable material development - achieving functionality without compromising environmental responsibility. The research aligns with Switzerland's commitment to pioneering sustainable solutions and could potentially contribute to reducing dependency on synthetic materials.