Industry

Plastic additives enabled global polymer growth, but today they also create new challenges for recycling, compliance, and circular material design.

Real-time resin diagnostics help processors monitor melt behavior, manage recycled-content variability, and improve plastics quality control.

Healthcare foams face growing pressure from PCR adoption, PFAS restrictions, EPR policies, and circularity goals across medical supply chains.

Researchers are addressing polymer data scarcity through AI, high-throughput experiments, simulations, literature mining, and standardized databases.

LEGO is reducing emissions and expanding the use of renewable, recycled, and mass-balance plastics across its global toy portfolio and supply chain.

Early plastics recycling succeeded with clean, single-resin streams but struggled with contamination, weak markets, and systems not designed for scale.

Plastics logistics evolved from bulk railcars to intermodal systems as trade, regulation, pellet loss, and sustainability reshape resin transport.

Ultrasonic plasticization helps micro-molders process small polymer volumes, reduce waste, and improve fine-feature replication in precision parts.

Infrared thermography and neural networks help predict injection-molded part quality by analyzing thermal patterns linked to cooling and warpage.

Heterogeneous thermal catalytic pathways for upcycling polyolefins offer a promising approach towards chemical circularity.

Foam Additive Manufacturing tunes TPU foam conductivity for flexible electronics by adjusting temperature and print speed.

Apricot shell flour improves ductility, impact strength, and compostability in injection-moldable zein bioplastics for packaging.