Incorporating flame retardant additives can help mitigate fire hazards by increasing the ignition resistance of plastics, reducing the speed of flame spread, reducing heat release, and reducing smoke and fume generation. Antimicrobial and antifungal additives can protect the user interfaces and touchpoints from mold, mildew, and bacteria, while antistatic and conductive formulations can prevent static discharge and create safer, statically dissipated plastic parts.  

Carbon fiber is known for its strength, toughness, vibration damping, and electric conductivity, while fiberglass offers excellent mechanical and insulative properties. In all cases, polymer composites enhance performance thanks to their resistance to corrosion, heat, weather, and flame. It is a continuous molding process where fibers are saturated with a liquid polymer, then carefully pulled through a heated die to form the parts.

Composite Heat Release Technology Composite Heat Release Technology Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging

Avoid excessive heat and minimize temperature spikes for best results. Composite Heat Release Technology Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging

Composite Heat Release Technology Cesa™ Conductive Additives Cesa™ Raise Heat Stability Modifier for APET Packaging