DME (dimethyl ether) is a clean, colorless gas that has remarkable potential for use as automotive fuel, for power generation, and in industrial and domestic applications for heating and cooking.  Bolstered by government support and industry commitments to reach carbon neutrality, this movement has ignited a fresh wave of investments aimed at advancing the scale-up and deployment of sustainable, low carbon fuels – a category that includes Renewable DME.  Renewable DME can assume a crucial role in driving the global energy transition movement leveraging on existing infrastructure to deliver a low carbon fuel solution.This webinar will highligh the applications of renewable DME and its role in supporting the global net zero pathway.  The content of this webinar is sourced from the report Biorenewable Insights: Renewable DME.To listen to the presentation, please contact your Account Manager for the password. 

This report investigates the various commercial and developmental routes for the production of renewable ethylene. Technologies based on bio-ethanol, bio-naphtha, and bio-methanol are investigated for ethylene production, as well as sugar and glycerin-based routes directly to ethylene glycol. Pyrolysis oil from thermal conversion of plastic wastes has seen significant development for conversion into bio-naphtha feedstock, as well as gasification of biomass to produce methanol for ethylene production. Dry reforming of methane with carbon dioxide and electrochemical production of ethylene are the new technologies covered in this edition of the report. Cost of production models, process descriptions, capacity analysis and implications for the conventional industry are included.

The purpose of this report is to analyze developing technologies for the production of biopolyols. Technical and economic aspects of producing biopolyols are explored in detail including cost of production models for key technologies. Production capacity developments, drivers for development, and strategies to increase biorenewable content are also explored.

The purpose of this report is to analyze the developments the first and next generation bioethanol technologies. Production options explored several global regions and technologies covering fermentation route of the first-generation feedstock, hydrolysis and fermentation of the second-generation feedstock, and syngas fermentation from a technical, economic (cost of production model), carbon intensity, and capacity level. A discussion of implications for the conventional technologies is also included.