Thermosets

Gasification of automotive shredder plastic with biomass lowers CO₂ emissions and creates circular feedstock for chemical production.

Engineers use machine learning algorithms to map polymer degradation, replacing physical trials with precise predictive models for industrial extrusion pipelines.

Engineers leverage ultrasonic welding to assemble full-scale thermoplastic fuselages, eliminating mechanical fasteners and cutting cycle times.

Engineers benchmark flax-glass progressive folding against carbon-Kevlar foam cores to optimize kinetic energy absorption for aircraft safety.

Engineers eliminate calcination emissions by encapsulating waste inside cross-linked polymers, creating load-bearing, modular blocks for rapid deployment.

Engineers utilize photothermal conversion to 3D print thermoset composites, cutting oven curing and delivering robust parts for industry.

Recycling technologies vary widely depending on feedstock quality and target performance. Selecting the right pathway determines whether circularity delivers real value or compromises material performance.

New CFP technology enables direct fiber compounding in injection molding, reducing costs, improving flexibility, and lowering CO₂ emissions.

New method converts automotive PP waste and CFRP scrap into recycled carbon fiber composites with improved mechanical performance.

Advanced printing technologies from CubiCure and Supernova are redefining additive manufacturing with high‑viscosity photopolymer resins.