P2 Science and Algenesis Unite to Create Algae-Based Chemicals and Fully Biobased, Biodegradable Polyurethanes

P2 Science and Algenesis Unite to Create Algae-Based Chemicals and Fully Biobased, Biodegradable Polyurethanes

William Faulkner 17-Nov-2025

P2 Science and Algenesis partner to develop scalable, 100% biobased, biodegradable polyurethanes using algae-derived intermediates, advancing sustainable, high-performance material innovation.

P2 Science, Inc., recognized for its innovations in green chemistry and sustainable material science, has entered into a significant collaboration with Algenesis Corporation, a company known for its expertise in producing bio-based and fully biodegradable polyurethanes. This newly announced partnership aims to jointly develop and commercialize raw materials that form the foundation of 100% biobased polyurethane products, marking an important step forward in the shift away from petrochemical-derived polymers.

The collaboration integrates two complementary technological strengths. P2 Science will contribute its proprietary PIOz™ (Process Intensified Ozonolysis) technology, which enables the conversion of renewable oils—specifically those derived from algae—into high-value chemical intermediates. These intermediates play a crucial role in the creation of bio-based polymers. On the other side, Algenesis will leverage the capabilities of its recently launched Bio-Iso™ pilot facility, along with its advanced bio-polyurethane material platforms, to convert these intermediates into next-generation, biodegradable polyurethane systems.

Through this partnership, the two companies plan to scale a next-generation chemical and polymer supply chain designed exclusively for 100% biobased and biodegradable polyurethanes. These materials are engineered to deliver high-quality performance while eliminating dependence on fossil-fuel inputs and avoiding the use of toxic phosgene, a common but hazardous component in conventional polyurethane manufacturing. The resulting sustainable materials are expected to expand commercially viable options for industries such as footwear, apparel, adhesives, coatings, and a wide range of consumer goods.

P2 Science is already synthesizing algae-derived azelaic acid at its Naugatuck, Connecticut production facility. This compound will serve as an essential input for Algenesis, supporting the company’s development of isocyanates and polymer building blocks required for its biodegradable polyurethane solutions.

Commenting on the collaboration, Oihana Elizalde, CEO of P2 Science, emphasized that the alliance significantly accelerates both companies’ shared mission of removing petroleum-based carbon from everyday products. She highlighted that P2’s ozonolysis platform allows access to renewable, plant-sourced intermediates that can seamlessly integrate into Algenesis’ sustainable polyurethane technologies. According to her, this partnership will offer global brands a clear and measurable sustainability advantage without requiring them to compromise on performance or product durability.

The initiative also aligns closely with global efforts to reduce reliance on traditional plastics and to phase out microplastics that persist in the environment. By working together, P2 Science and Algenesis will support a broad commercialization strategy that already includes collaborations with leading consumer brands seeking environmentally responsible material alternatives.

Steve Mayfield, CEO of Algenesis, added that the company’s mission is to replace conventional plastics with plant-based materials that naturally biodegrade when they reach the end of their useful life. He stated that partnering with P2 enables Algenesis to integrate a new category of bio-based intermediates into its formulations, which will help the company maintain exceptional polyurethane performance while contributing to a cleaner and healthier planet.

Looking ahead, both organizations have committed to expanding manufacturing capacity and ensuring that plant-derived chemicals and biodegradable bio-polyurethanes become widely accessible to global markets. Their combined efforts aim to accelerate innovation in sustainable materials and support industries seeking viable alternatives to petroleum-based polymers.

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