This report provides a comprehensive analysis of the tire industry's shift towards sustainability, focusing on reducing dependence on petroleum-based materials and expanding the use of recycled and bio-based alternatives. It highlights how the electric vehicle (EV) transition is driving growth for tire companies, particularly in the demand for EV-specific tires. The analysis covers a wide range of sustainable materials, including but not limited to bio-isoprene, bio-butadiene, and natural rubber, while addressing key environmental challenges such as tire pollution, waste management, and the sourcing of raw materials like natural and synthetic rubber, and carbon black. The report also presents an economic margin analysis, comparing sustainable tire configurations to conventional tire baselines. It delves into end-of-life tire management strategies, including pyrolysis, retreading, and mechanical recycling, with a detailed cost of production (COP) analysis for recovered carbon black from pyrolysis. Finally, the report profiles 16 leading tire manufacturers, offering an in-depth look at their financial performance, manufacturing practices, and sustainability strategies, showcasing their progress and innovations in driving a more sustainable future.

This report provides an overview of commercial and developing technologies for linear alpha olefins exploring the chemistry and process technology. Comparative economics and carbon intensities are presented for full-range technologies (Chevron Phillips, INEOS, Shell, ExxonMobil, SABIC/Linde, Axens, Idemitsu) and on-purpose production of butene-1 (Axens, Zeon), hexene-1 (Chevron Phillips, Axens, Sasol), and octene-1 (Dow, Sasol). A regional capacity overview is also included, with a breakdown by company in each region.

Red, purple, pink hydrogen provides key tangible, feasible, and viable pathways towards definitive global and regional decarbonization of supply/value chains with zero greenhouse gas emissions. Also, as part of an optimal energy mix, this includes, but not limited to, being an effective energy carrier for fuels, feedstocks, and production of downstream chemicals. In addition, providing enhanced reliability, resilience, and availability of baseload and peaking supply of electricity and hydrogen for wholesale and retail end-customers. Commercially advanced technologies via small modular reactors and proven processes via electrolysis and thermolysis are paving the way forward.

This report provides an overview of commercial and developing technologies for xylenes production and includes process economic comparisons and carbon intensity analyses for production routes to para-xylene and meta-xylene. Discussion of commercial end-use applications and a global capacity list by producer are also included.