The company provides a patented mineral‑based catalytic additive that can be blended into standard thermoplastic resins such as PE, PP, and PET during normal extrusion or molding. When exposed to UV light above 300 nm or temperatures above 120 °C, the additive triggers a two‑stage degradation that mineralizes the polymer into biomass, water and CO₂, while preserving mechanical performance during use. This solution enables polymer manufacturers and packaging or agricultural film producers to add verifiable end‑of‑life degradability without modifying existing production lines.
Funding
Funding not disclosed
Founders
Product
Problem
Conventional plastics persist in the environment for centuries, leading to mounting waste streams across all sectors. Existing recycling and biodegradation solutions often require separate collection, specialized processing, or alterations to polymer formulations, limiting scalability and adoption.
Solution
The company offers a patented, mineral‑based catalytic additive that can be blended into standard polymer resins during normal manufacturing. Upon exposure to sufficient ultraviolet light or heat, the additive initiates a controlled two‑stage degradation pathway that converts the polymer matrix into biomass, water, and carbon dioxide. Because the additive is chemically compatible with a wide range of polymer families, it requires no changes to existing extrusion, molding, or film‑casting equipment. The degradation process is triggered only under defined environmental conditions, preserving material performance during use while ensuring complete disappearance after disposal. This approach enables manufacturers to maintain current supply chains while delivering a verifiable end‑of‑life solution for plastic waste.
Target Audience
Primary customers are polymer manufacturers, packaging producers, and agricultural film companies seeking to embed end‑of‑life degradability into existing plastic products without retooling their production lines.
Features
- Patented mineral‑based catalyst formulated for melt‑compatible blending with common thermoplastics (e.g., PE, PP, PET).
- Dual‑stage degradation mechanism: initial polymer chain scission followed by mineral‑catalyzed mineralization to biomass, H₂O, and CO₂.
- Activation triggered by UV radiation ≥ 300 nm or temperatures ≥ 120 °C, allowing designers to schedule degradation timing.
- Maintains baseline mechanical properties (tensile strength, impact resistance) during the service life of the product.
- Compatible with standard processing equipment (extruders, injection molders, film coaters) without additional additives or process steps.
- Applicable to bulk resin pellets, compounded compounds, and thin agricultural films for controlled field breakdown.
- Fully disclosed composition enables regulatory compliance and straightforward safety assessment.
- Scalable supply chain based on abundant mineral feedstocks, reducing reliance on proprietary polymers.