Electric Vehicles

Polymer-based solutions pave the way for composite materials to meet the strict demands of modern energy storage.

Researchers explored how atmospheric pressure plasma (APP) modifies the surface of bumpers to enhance paint adhesion without the need for primers, which is linked to solvent emissions and hazardous waste.

As demand for sustainable, high-performance insulation materials increases, researchers continue to explore innovative ways to enhance traditional polymers, such as polystyrene (PS).

When extreme conditions demand superior performance, PEEK is the material of choice. It offers resistance, durability, and versatility across diverse industries.

High-performance thermoset materials cannot be remelted or reshaped. Consequently, recycling carbon-fiber-reinforced composites poses significant challenges.

Developing high-performance solid polymer electrolytes (SPEs) represents a major leap forward for energy storage technologies, particularly lithium-ion batteries.

Manufacturers increasingly use lightweight yet durable plastics to replace metals, with new applications emerging regularly.

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.

Sustainable polymer-based anticorrosive coatings offer technical, economic, and environmental advantages. Continuous advancements in this technology aim to overcome current challenges.

Incorporating recycled rubber as a filler in carbon black for NR/BR/SBR ternary blends offers a sustainable solution for the automotive tire industry, enhancing both performance and environmental impact.