This report analyzes the technoeconomic developments in biodegradable technologies. Relevant commercial technologies processes and high level economics are presented. Impacts on the conventional industry, trends and drivers are also discussed.

This report is a technoeconomic and carbon intensity comparison analysis of biomethanol (via feedstock switching to biogas, gasification, and power-to-methanol) and potential downstream base chemical products (acetic acid, ethanol, ethylene, propylene, BTX, and gasoline) which form the backbone of the modern chemical industry in turn can be used to produce most conventional petrochemicals, and therefore “green” these value chains. Carbon intensity reductions are valorized in case study scenarios of carbon emissions prices, and break even carbon values are estimated on a regional basis.

This report provides techno-economic analysis on various routes to produce biobased polycarbonates, including the use of biobased BPA alternatives (e.g. isosorbide, diphenolic acid, etc.), bio-phenol/bio-acetone from renewable feedstocks, bio-DMC/bio-DPC, and the copolymerization of biobased epoxides with carbon dioxide.

EPDM is produced by the polymerization of ethylene, propylene, and typically another monomer containing side-chain unsaturation such as ethylidene-5-norbornene-2 (ENB). It is produced by Ziegler-Natta or metallocene (includes single site or similar catalyst types) catalyzed solution processes, or a Zeigler-Natta catalyzed slurry process. EPDM has a fully saturated molecular backbone that provides excellent ozone resistance, weatherability and heat resistance properties, very good dielectric performance, and low temperature flexibility. This report includes an analysis of EPDMs markets, end-uses, and production technologies. Production economics were prepared for world-scale Ziegler-Natta solution, Metallocene solution, and Ziegler-Natta slurry processes. The economics were prepared for plants located in the U. S. Gulf Coast, Western Europe, and China Coast.