Compounding

Research explores the environmental impacts of transforming multilayer metalized plastic packaging (MLP), commonly used in consumer goods, into paving blocks (PVBs).

Recent studies have delved into the profound effects of plasticizers on the crystallization behavior of linear polymers, shedding light on their impact on nucleation, growth, and melting processes.

Recent research has unveiled the potential of polymer materials as effective catalysts in environmental remediation, particularly in removing toxic gases from the environment. This innovative application of polymers underscores a crucial advancement in tackling air pollution and enhancing air quality through catalytic processes.

Microencapsulation enhances the performance of additives in a variety of plastics applications. This technology is invaluable for incorporating additives that possess explosive properties, are challenging to handle, exhibit high reactivity, or are PCMs. 

Stone packaging primarily consists of plastic mixed with calcium carbonate. The specific proportions of these components can vary depending on the intended application.

PEEK glass fiber composite crystallization undergoes a critical transformation when subjected to conditions of high undercooling and intense shear.

GreenMantra Technologies diverts thousands of tons of plastic from landfills, dumps, and the ocean. They leverage molecular recycling to produce sustainable additives from plastic waste.

Most plastics processing sites use gas simply for space heating but some processes use gas as part of the process, e.g., rotational molding.  Where gas is used for hot water only then this is generally relatively constant over the year. For space heating, the gas use load will be related to the weather conditions (how cold it is) and the weather is then a ‘condition’ driver for gas use. 

Employed by myriad sectors ranging from fast-moving consumer goods (FMCG) and retail packaging to pharmaceuticals, construction, and even government identification initiatives, these technologies have played a pivotal role. Taggants imbue plastic products with an additional layer of security and authentication, presenting a formidable challenge to counterfeiters who attempt to replicate or alter these items.

Trifluoroacetic acid (TFA) stands out as a promising alternative to per- and polyfluoroalkyl substances (PFAS), known as “forever chemicals,” due to its lower environmental impact while maintaining similar benefits.

In an era where environmental sustainability and health safety are paramount, the scrutiny of fluorosurfactants is intensifying. These substances, integral to industries ranging from firefighting foams to textile manufacturing, are now under the microscope for their persistence in the environment and potential health risks.

The pilot-scale fluoropolymer incineration study conducted by the Karlsruhe Institute of Technology (KIT) represents a significant stride in understanding the environmental impact of fluoropolymer disposal.