Circular Economy

Multilayer films can prove challenging to recycle—UMass researchers are looking for a solution.

Bioplastics often carry a reputation for disrupting recycling systems, yet a recent European Bioplastics study presents a different perspective.

Researchers developed a biodegradable composite by integrating calcium carbonate (CC) into poly(1,8-octanediol-co-citrate) (POC).

Tire recycling covers less than 30% of the new tires. As sustainability regulations tighten and raw material costs rise, the race is on to develop economically viable recycling methods that meet technical performance standards.

Solar thermal energy offers a viable way to cut emissions and energy costs in industry if it can affordably meet roto molding’s high heat demands.

There is growing interest in enzymatic degradation as an alternative to biodegradation, though its full potential is not yet certain.

Automotive plastics pose one of today’s biggest recycling challenges and hold the key to tomorrow’s circular economy solutions.

As industries strive to integrate recycled materials into mainstream manufacturing, researchers continue to explore ways to enhance the usability of post-industrial recycled polypropylene (PIR-PP).

Companies worldwide are reevaluating their production processes. One major shift is the use of recycled content in manufacturing.

On-site 3D printing of single-use consumables can help life science laboratories reduce carbon emissions.

Polyurethane foams recycling rates remain low with less than 10% of polyurethane. Landfills receive millions of tons of foam annually, contributing to environmental pollution.

Elastomer recycling sector is undergoing significant transformation as new technologies emerge to address the limitations of traditional methods.