Advanced Polymer Synthesis & Polymerization
Innovations in controlled polymerization, macromolecular architecture, and precision synthesis for next-generation polymer systems.
Advancing Sustainable Polymers, Catalytic Innovation and Chemical Engineering for a Circular Future
July 27–29, 2027
Paris, France
Sessions
Explore the scientific tracks and focus areas of CatalyPoly-2027.
Innovations in controlled polymerization, macromolecular architecture, and precision synthesis for next-generation polymer systems.
Stimuli-responsive, conductive, self-healing, and durable polymers for demanding applications.
Design, fabrication, interfaces, and performance of multiphase polymer materials.
Renewable, biodegradable, and bio-derived polymers for sustainable material platforms.
Analytical methods, flow behavior, and processing strategies for polymer materials.
Circular design, low-carbon materials, reuse models, and end-of-life strategies for polymers.
Depolymerization, conversion, and catalytic upgrading of plastic waste into higher-value products.
Fundamental and applied studies across solid, molecular, organometallic, and hybrid catalytic systems.
Rational catalyst development supported by advanced synthesis, structural analysis, and performance testing.
Nanostructured catalysts, porous frameworks, and engineered catalytic materials for high-selectivity transformations.
Catalytic systems for light-driven, electrochemical, and energy-storage or conversion processes.
Enzymes, whole-cell catalysts, and bio-inspired pathways for selective and sustainable chemical production.
Reaction mechanisms, transport phenomena, reactor modeling, and kinetic analysis for chemical processes.
Compact, efficient, and high-performance reactor concepts for safer and more sustainable processing.
Advanced separations, purification strategies, and data-driven optimization for chemical engineering systems.
Safer chemicals, cleaner processes, renewable feedstocks, and reduced environmental impact across the value chain.
Catalytic routes for hydrogen production, carbon utilization, and clean energy systems.
Data science, modeling, simulation, and AI-enabled discovery for polymers, catalysts, and chemical processes.
Translation of catalysis and polymer technologies into robust, scalable, and digitally enabled manufacturing systems.
Forward-looking materials, processes, and interdisciplinary directions shaping the future of polymer science and chemical engineering.