Mycelium Acoustic Biomass Board

SKU: EP-2024030201

Category: Sustainable Materials

The Mycelium Acoustic Biomass Board is a bio-based acoustic material developed from mycelium, hemp, and willow fibers. Grown rather than manufactured, the material uses agricultural waste (such as crop stalks, bagasse, and bark residues) as a cultivation substrate, allowing selected mycelium strains to naturally bind and solidify the biomass into a lightweight yet structurally stable panel.

Through controlled growth, temperature, and humidity, the mycelium network integrates all raw materials into a cohesive form, resulting in a naturally formed composite with strong internal structure, acoustic absorption capability, and inherent fire resistance.

Key Attributes

• Material Type: Mycelium-based acoustic biomass board

• Primary Content: Mycelium, hemp fibers, willow fibers, agricultural waste substrates

• Bio-based Content: Over 95%

• Recyclability: Fully recyclable

• Biodegradability: 100% biodegradable

• Fire Rating: B1

• Supply Lead Time: Approx. 15 days

• Customization: Size, thickness, density, and structural form available

Performance Highlights

• Naturally grown mycelium network provides excellent sound absorption performance

• Lightweight structure with sufficient rigidity for panel and modular applications

• Moldable during growth, capable of forming complex shapes via controlled molds

• Inherent fire resistance without chemical additives

• Low environmental impact with minimal processing energy

• Fully biodegradable at end of life, enriching soil after decomposition

Applications

• Acoustic wall panels and ceiling systems

• Interior partitions and sound-absorbing elements

• Exhibition spaces and cultural installations

• Furniture cores and sculptural structures

• Sustainable architecture and interior design projects

• Material research and experimental design

Why It Matters

The Mycelium Acoustic Biomass Board demonstrates how living systems can replace industrial manufacturing processes. By allowing mycelium to grow and bind organic waste into functional forms, this material reduces resource consumption while delivering acoustic performance, fire resistance, and structural versatility.

It represents a new material logic—one where growth replaces fabrication, and sustainability is achieved through biological intelligence rather than added complexity.