Cereplast to Transform Algae into Bioplastics

24 October 2009

Cereplast, Inc., manufacturer of proprietary bio-based sustainable plastics, has been developing a breakthrough technology to transform algae into bioplastics and intends to launch a new family of algae-based resins that will complement the company’s existing line of Compostables & Hybrid resins.

Cereplast algae-based resins could replace 50% or more of the petroleum content used in traditional plastic resins. Currently, Cereplast is using renewable material such as starches from corn, tapioca, wheat and potatoes and Ingeo PLA.

Based on our own efforts, as well as recent commitments by major players in the algae field, we believe that algae has the potential to become one of the most important green feedstocks for biofuels, as well as bioplastics. Clearly, our focus will be on bioplastics. However, for our algae-based resins to be successful, we require the production of substantial quantities of algae feedstock.

Our algae research has shown promising results and we believe that in the months to come we should be able to launch this new family of algae-based resins. Algae-based resins represent an outstanding opportunity for companies across the plastic supply chain to become more environmentally sustainable and reduce the industry's reliance on oil. We are still in the development phase, but we believe that this breakthrough technology could result in a significant new line of business in the years to come.

—Frederic Scheer, Founder, Chairman and CEO of Cereplast

Cereplast has initiated contact with several companies that plan to use algae to minimize the CO₂ and NO_x gases from polluting smoke-stack environments. Algae from a typical photo-bioreactor is harvested daily and may be treated as biomass, which can be used as biofuel or as a raw material source for biopolymer feed stock. The company is also in direct communication with potential chemical conversion companies that could convert the algae biomass into viable monomers for further conversion into potential biopolymers.