Celanese Corporation has announced the introduction of Celanese® Polyphenylene Sulfide (PPS) to the Japanese market to meet the demanding product quality and materials specification needs of automotive customers in the country. “We see tremendous growth potential for a PPS polymer solution, and we are excited to bring our technical knowledge, processing expertise and product offering to regional and global OEM customers who call Japan their home. Celanese® PPS is a highly stable and durable polymer and is a primary reason why customers in the Japanese automotive industry, among others, specify parts made from this material,” said Hajime Suzuki, Celanese managing director for Japan. “We see tremendous growth potential for a PPS polymer solution, and we are excited to bring our technical knowledge, processing expertise and product offering to regional and global OEM customers who call Japan their home.”
Celanese will offer the following PPS grades in Japan:
Celanese® ICE PPS - ICE (Improved Crystallization Evolution) grades are part of the PPS semi-crystalline polymer family that features exceptionally high temperature performance up to 240 degrees Celsius (464 degrees Fahrenheit); outstanding resistance to fuels, oils and solvents; excellent hardness, stiffness and dimensional stability; and inherent flame-resistance. ICE grades use an innovative platform technology developed by Celanese material scientists to deliver material properties that are equivalent to or better than standard injection molding PPS grades - and at the same time, significantly improve the processing characteristics.
Celanese® Flex PPS - offers excellent thermal, chemical and permeation resistance, contains no plasticizers and can be tailored to meet customer requirements. Celanese® Flex PPS is an exceptional material selection for under-hood automotive applications where flexible tubing requirements help engineers and designers meet the engine “packaging” requirements of today’s high performance turbo engines where space constraints test the limits of inferior engineered polymer materials.
{{comment.DateTimeStampDisplay}}
{{comment.Comments}}