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.

This report provides a technical, economic, environmental, and regulatory analysis of rPET recycling in the United States Gulf Coast (USGC), Western Europe, China, Japan, and Southeast Asia. PET (polyethylene terephthalate) boasts one of the highest recycling rates among plastics due to its widespread use, especially as bottles, and suitability for mechanical recycling. Its properties allow for repeated reshaping without significant quality loss, enhancing its value in textiles and packaging applications. However, by 2030, rPET demand is set to triple the expected supply. Despite environmental and regulatory pressures, just 27% of PET bottles are recycled, with most ending up in landfills. This report delves into the nuances of PET recycling pathways from mechanical recycling to chemical technologies like solvent-based purification, glycolysis, methanolysis, and enzymatic hydrolysis. It offers detailed profiles of industry frontrunners, including technology licensors, owners, operators, and those in advanced robotic sorting, covering the intricacies of each of their operations. The analysis presents the delivered cost of production for each recycling route across the five regions, shedding light on market trends and the economic feasibility of recycling intermediates such as rPET flakes, Bis-Het, and DMT. Additionally, it benchmarks the final rPET pellets against the Q1 2023 virgin PET price for each region.

This report focuses on perfluorinated sulfonic acid (PFSA) proton exchange membranes (PEM) commercial technologies, process economics in the US, Western Europe, and China for those homogeneous, reinforced and catalyst-coated membranes for the first quarter of 2023 as well as global production capacity. These are crucial to green hydrogen production (i.e., hydrogen made from renewable power via electrolysis). NexantECA also provided a high-level analysis of the business and strategic considerations as well as the technology availability from the perspective of a company entering or expanding into the PFSA PEM market.

Polyglycolic acid (PGA), also known as polyglycolide is a biodegradable, thermoplastic polyester polymer and the simplest of the polyhydroxyalkanoate (PHA) class of polyesters possible.