PLA Supplier Gets Grant To Explore Biomethane As Feedstock
NatureWorks and Calysta receive DOE grant aimed at ongoing program to develop Ingeo PLA feedstock diversification.
The Bioenergy Technologies Office of the Department of Energy (DOE) has just awarded a grant to NatureWorks, Minnetonka, Minn., one of the world’s leading PLA suppliers, and Calysta Energy of Menlo Park, Calif., which has been developing new Biological Gas-to-Liquids and Biological Gas-to-Chemicals technologies using methane as a new feedstock for high value chemicals and transportation fuels with reportedly cost and performance advantages over current processes.
The $2.5-million multi-year grant will support the two firms’ ongoing program that aims to sequester and use methane, a potent greenhouse gas, as a feedstock for NatureWorks’ Ingeo PLA biopolymers and intermediates. It will bolster the joint effort to meet the specific goal of transforming, via new and advanced fermentation processes, renewable biomethane into lactic acid, the building block for PLA.
This R&D collaboration with Calysta addresses NatureWorks’ strategic interests in feedstock diversification and a structurally-simplified, lower-cost Ingeo production platform and leverages Calysta’s Biological Gas-to-Chemicals platform for biological conversion of methane to high-value chemicals. For NatureWorks, methane could become an additional feedstock several generations removed from the simple plant sugars used today in a lactic acid fermentation process at the company’s Blair, Nebraska Ingeo production facility.
Calysta has demonstrated lab-scale production of lactic acid from methane, a major milestone in the project, and the company expects to complete fundamental R&D within the next couple of years, enabling pilot production within three-to-five years.
A greenhouse gas that is 20 times more harmful than CO2, methane is generated by the natural decomposition of plant materials and is a component of natural gas. Biomethane refers specifically to renewably sourced methane produced from such activities as waste-water treatment, decomposition within landfills, farm wastes, and anaerobic digestion. If successful, the technology could directly produce lactic acid from any of these methane sources.
Want to find or compare materials data for different resins, grades, or suppliers? Check out Plastic Technology’s Plaspec Global materials database.
Related Content
-
Latest Data on Bottled Water Shows Continued Strong Growth
Bottled water’s volume surpassed soft drinks for the first time in 2016 and has done so every year since.
-
Foam-Core Multilayer Blow Molding: How It’s Done
Learn here how to take advantage of new lightweighting and recycle utilization opportunities in consumer packaging, thanks to a collaboration of leaders in microcellular foaming and multilayer head design.
-
Breaking the Barrier: An Emerging Force in 9-Layer Film Packaging
Hamilton Plastics taps into its 30-plus years of know-how in high-barrier films by bringing novel, custom-engineered, nine-layer structures resulting from the investment in two new lines.
