Vinyl

As climate change and global population growth accelerate, researchers are developing sustainable solutions to improve food security and crop yields.

Researchers have developed two innovative tung oil-based liquid auxiliary heat stabilizers, Ph-T and Ph-TO, to address critical challenges in polyvinyl chloride (PVC) processing.

As the demand for electric vehicles (EVs) grows, efficient, safe, and long-lasting batteries become critical to meet energy and performance needs. Lithium-ion batteries (LIBs) power most EVs, but they face energy density, safety, and long-term reliability limitations.

Researchers have developed a breakthrough technique to improve the durability of polyvinyl chloride (PVC), one of the most widely used plastics.

PVDC is a synthetic polymer with exceptional barrier properties. It has transformed industries such as food packaging and medical products.

Vinyl building materials have been essential in the construction industry. However, the environmental challenges associated with them have prompted an increasing focus on recycling efforts to minimize their impact.

Polyvinyl Chloride (PVC) drives innovation across industries due to its properties like exceptional cost-performance ratio, versatility, and sustainability.

The release of injection-molded thermoplastic parts requires long-lasting and cost-intensive aging tests. A simulation-based approach to assess the aging of thermoplastic parts would constitute an essential asset for any company.

Emulsion polymerization is a useful and cost-effective process that allows for easy creation of several commercially important polymers.

PVC Composites reinforced with non-metallic printed circuit boards (PCBs) offer a groundbreaking solution to the escalating e-waste crisis, as it integrates sustainable practices with enhanced material performance.