Processing aids can be used to achieve an improved surface finish, expanded heat processing window, elimination of die drool, and higher line speeds.  Heat transfer capabilities of metal with design freedom and weight reduction of engineered polymers

Reduces Energy & Heat Transfer SiteCool™ Infrared Absorption Technologies for fluoropolymer roofing or wall systems reduce the transfer of heat into the interiors of architectural structures by absorbing solar infrared (IR) energy into the fluoropolymer sheet.

Stands Up to High Heat Reduce friction, noise, vibration and heat buildup with these wear-resistant formulations

The heat destroys many pigments used in engineering thermoplastics. It typically works best with a nozzle temperature between 360–400°C and a heated bed of 120°C.

This technology consists of a cross-linked, olefinic-based elastomer with lighter weight, improved heat resistance, and easier processing versus that of certain conventional TPVs, silicones, and thermoset rubbers. Products typically made from high-performance materials such as silicone or other thermosets can now reap the benefits of heat and chemical resistance with ambient temperature curing.

Our flame retardant compounds meet stringent UL requirements, and our specialized materials help you reduce friction, heat build-up, noise and vibration in small-motor applications. Vacuums & Floor Care; Heating, Cooling & Air Quality; Irons & Steamers Vacuums & Floor Care; Heating, Cooling & Air Quality; Irons & Steamers

Although these process aids do not directly benefit preform manufacturers, who produce the initial plastic preforms, the advantages are realized at the bottle blower stage, where the preforms are heated and blown into their final bottle shapes. Reduce energy to the blowing lamps allowing preforms to heat faster b. Increased Throughput: To achieve desired bottle quality, many blow molders will slow the blow speed, giving the preform optimal time to heat before blowing.