We use high temperature resins as a basis for a broad range of thermoplastic compounds because they offer better mechanical performance, wear resistance, and chemical resistance than most other polymers. Although all polymers will lose performance over time at elevated temperatures, high temperature polymers have rigid polymer chains that allow them to operate at higher temperatures. In addition, their strong chemical bonds enable them to maintain better properties at elevated temperatures, thus enabling higher continuous use temperatures.

Starting with high temperature resins as the base, our engineers compound thermoplastic materials that:

  • improve performance at elevated temperatures > 150 °C/300 °F
  • retain physical properties
  • provide better dimensional stability
  • offer excellent electrical characteristics at increased temperature

Our extensive database of high temperature solutions includes commercially available formulations and custom compounds to fit your application requirements.

We offer unbiased information to help you:
For more information about specific High Temperature Compounds, select from the menu below:
Our Ultra Performance structural compounds are based on carbon fiber reinforced PEEK, PPA, PPS, and PEI resin systems to create the highest performing thermoplastics portfolio available. These high temperature polymers combine excellent chemical resistance with very high strength and stiffness makes them the premier choice for energy exploration, industrial fluid handling, and other applications that experience extreme temperature and chemical environments.

Manufactured using advanced compounding techniques that maximize fiber integrity; Ultra Performance Structural Compounds from RTP Company achieve industry leading strength and stiffness properties.  Combining the higher mechanical properties and lower densities of carbon fiber with the excellent thermal and chemical resistance provided by using high temperature resin systems allows these injection moldable thermoplastic materials to close the performance gap between plastics and metals.