SYLIA cultivates mycelium‑based composites on agricultural waste to replace petroleum‑derived plastics, foams, and textiles with fully biodegradable materials. Its low‑energy, water‑based process produces customizable panels, fibers and foams with tunable mechanical properties and provides API‑driven material data for seamless integration into design and manufacturing workflows.
Funding
Funding not disclosed
Founders
Product
Problem
Conventional manufacturing relies heavily on petroleum‑derived polymers and composite materials that are energy‑intensive to produce, persist in the environment, and generate substantial waste streams. This linear production model contributes to resource depletion, landfill accumulation, and carbon emissions, limiting the ability of industries to meet rising sustainability regulations and consumer demand for eco‑friendly products.
Solution
SYLIA applies fungal biotechnology to grow mycelium‑based composites that serve as biodegradable alternatives to traditional plastics, foams, and textiles. By cultivating fungal mycelium on agricultural waste substrates, the process transforms low‑value biomass into high‑performance material panels, fibers, and foams without the need for petrochemical feedstocks. The resulting myco‑materials are fully compostable, returning nutrients to soil after use, thereby closing the material loop. SYLIA’s production workflow operates at ambient temperature and pressure, reducing energy consumption and eliminating hazardous solvents. The platform also offers modular formulation tools that allow designers to tune mechanical properties such as tensile strength, flexibility, and density to match specific application requirements. All products are shipped with lifecycle data and integration APIs for seamless incorporation into existing design and supply‑chain software.
Target Audience
Primary customers are sustainable product designers, brand manufacturers, and packaging firms seeking biodegradable material alternatives, as well as research institutions developing eco‑friendly composites for architecture and consumer goods.
Features
- Controlled mycelium cultivation on locally sourced agricultural residues, enabling carbon‑negative material generation
- Low‑energy, water‑based processing that eliminates high‑temperature extrusion and solvent use
- Customizable composite formulations with adjustable modulus, compressive strength, and porosity for diverse use cases (packaging, apparel, interior design)
- Fully biodegradable and home‑compostable end‑of‑life profile, with documented soil enrichment metrics
- Scalable production modules ranging from tabletop DIY kits to industrial‑scale bioreactors for batch manufacturing
- Open‑source material property database and API for integration with CAD, PLM, and sustainability reporting tools
- Real‑time monitoring of growth parameters (pH, temperature, humidity) via IoT sensors to ensure batch consistency and traceability