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The transition from vehicles powered by internal combustion engines to those propelled by electric machines is a reality, and an increasing number of car manufacturers worldwide are accelerating their transition to meet not only government regulations but also the expectations of their customers.

Carbon-fibre reinforced compounds play a pivotal role in demanding applications like automotive, aviation, and renewable energy due to their blend of rigidity, mechanical strength, and lightness. However, recycling these compounds, especially in wind turbines, has been a persistent challenge. As part of the Wind Turbine Materials Recycling Challenge by the US Department of Energy, scientists are spearheading innovative solutions, with a particular focus on chemical recycling.

The Consumer Goods Forum (CGF) has introduced Golden Design Rules to boost the recycling value of PET thermoformed trays and other PET thermoformed packaging. These guidelines are tailored to integrate with existing regional recycling programs and pave the way for more efficient recycling systems by 2025.

Scientists at King’s College London have unveiled a groundbreaking method for recycling single-use bioplastics, commonly found in disposable items like coffee cups and food containers. Published in Cell Reports Physical Science, the chemical recycling approach utilizes enzymes akin to those in biological laundry detergents to swiftly break down landfill-bound bioplastics within just 24 hours.

Advanced machinery that can effectively decontaminate post-consumer plastics is the key to producing rPET with exceptionally high purity. This quality is essential for FDA-approved food-grade packaging.

The Consumer Goods Forum (CGF) has established 9 Golden Design rules to tackle plastic pollution. Rule #1 is to increase the value of PET recycling by embracing transparency and simplicity.

A pair of U.S. defense-related organizations –– America Makes and NCDMM –– have awarded funds to a project designed to optimize recycled PET (rPET) and rPET-based composites in filament-fed material extrusion 3D printing.

As scientists, we must look for the truth, but sometimes this truth can be interpreted differently depending on how our investigation scope was developed. I think this is the case of the recent study that found hundreds of thousands of nanoplastics in bottled water.

Injection molding simulation has already achieved a high level of precision. Industry leaders’ recent collaboration promises enhanced precision in material data, elevating manufacturing efficiency and quality standards.

Research indicates that microplastics induce physiological and behavioral changes in aquatic organisms, impacting reproductive capabilities and overall fitness. Furthermore, microplastics serve as carriers for toxic chemicals, posing additional threats as they traverse through the food web.

Optimizing manufacturing processes is paramount. This article delves into an innovative solution implemented at a compounding factory, where Programmable Logic Controller (PLC) tags seamlessly became cloud-based assets within Amazon Web Services (AWS).

Companies worldwide are gathering efforts to develop flame retardant systems based on renewable sources providing an eco-friendly alternative to halogenated flame retardants. Additives with flame-retardant properties, such as phosphorus-based compounds, can chemically modify carbon sources like cellulose, chitosan, and lignin. This results in the successful design of intumescent flame retardants for use in many applications.