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Hyphyn introduces enzyme-driven PVC biodegradation, achieving over 90% breakdown under ASTM D5511; however, real-world landfill validation remains pending.

PFAS contamination is now systemic across the UK. Engineers and regulators must decide between incremental control and full chemical elimination.

Shape-memory polymers enable strong, reversible adhesion inspired by nature, advancing smart adhesives for robotics and flexible electronics.

A new sodium-based method upcycles PTFE into fluorochemicals at room temperature, reducing PFAS risk and recovering valuable fluorine.

Engineered polymers extract rare-earth ions from contaminated leachates, reducing acid consumption, cycle time, and solvent inventories.

Turning mixed plastic waste into hydrogen fuel and carbon nanomaterials for H₂ engines and advanced lubricant additives.

Smart factories use data analytics, automation, and modular design to enhance efficiency, adaptability, and sustainability in plastics manufacturing.

Biointellectus develops the next generation of bioproducts by transforming biomass into functional plastics.

Additive manufacturing (AM) is emerging as a popular method in the research and development of electronics that use conductive polymers.

Plasticizer migration erodes performance and elevates compliance risk in PVC products. To counter this, surface engineering gives manufacturers direct, interface-level control.

Researchers are investigating how polymers can play a part in reinforcing older masonry buildings, making them more resistant to earthquakes.

The plastics industry is undergoing a profound transformation. With increasing pressure to decarbonize, reduce waste, and remain globally competitive, stakeholders across Europe and the U.S. are rethinking how plastics are produced, used, and recycled.