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The need to lower the steep costs of traditional manufacturing, involving expensive tooling and molds, makes advancing composite manufacturing a key research focus.

Non-halogenated flame-retardant developments are driving a transformative shift in the global market, challenging traditional flame retardants that often lead to toxic emissions.

Supercritical foaming revolutionizes polymer science, creating lightweight, porous materials with superior properties through controlled pressure and supercritical fluids.

While certain PFASs are notorious for their toxicity, persistence, and environmental mobility, Fluoropolymers emerge because of their durability, safety, water insolubility, and bio-inertia. These high-performance polymers are revolutionizing industries with their attributes.

The terms “film” and “sheet” often lead to confusion within and outside the industry, as they are sometimes used interchangeably. While both refer to thin, flat materials, they possess distinct characteristics and applications.

In the fight against global climate change, oceans play a key role as a significant carbon reservoir. However, inadequate waste management systems for plastics have led to a widespread release of these materials into the world’s oceans.

The term “biodegradable” evokes images of materials effortlessly breaking down into the earth, leaving no trace. But what does it truly entail? According to the Standard Terminology Relating to Plastics ASTM D883-23, biodegradable plastic refers to degradable plastic in which the degradation results from the action of naturally occurring microorganisms such as bacteria, fungi, and algae.

Polylactic Acid (PLA) has gained popularity as a sustainable alternative to traditional fossil-based thermoplastics such as polyethylene terephthalate (PET) and polystyrene (PS).

The worldwide market for flame retardants has the potential to grow significantly in the constantly evolving field of fire safety, with projected expansion persisting into the near future.