High-performance polymers excel in both high and low-temperature environments, making them critical in industries requiring thermal insulation, integrity and stability. Used in space, aviation, oil & gas, nuclear, semi-conductor, and heavy industry, these materials perform well in extreme conditions, from cryogenic to elevated temperatures, where traditional options such as elastomers fail.
Rulon®, Meldin®, and Hycomp™ material solutions are used in diverse applications across in many critical industries where reliable thermal properties, together with reduced wear and friction, are paramount.
-268°C to +316°C
(-450°F to +600°F)
up to 710 MPa
(103 kpsi)
0.12 – 0.20
High-performance polymers are engineered for exceptional mechanical strength - derived from tensile strength, stiffness, toughness, flexural strength, impact strength, hardness, and other characteristics - making them a lightweight, durable alternative to metals in demanding industries.
These advanced materials excel in wear resistance, toughness, and creep resistance, ensuring long-term reliability in aviation, industrial machinery, and medical devices. Unlike traditional materials, specialized polymers like Meldin® and Hycomp™ withstand extreme mechanical stress, abrasive environments, and high friction without degrading. Their ability to resist fatigue and deformation makes them indispensable for critical applications where failure is not an option.
up to 710 MPa
(103 KPSI)
Up to +350°C
(+660°F)
60-80% vs metals
High-performance polymers are engineered to deliver precise electrical properties, making them highly valued in industries where insulation, conductivity, and signal integrity are required. In aviation and oil & gas, these advanced materials prevent electrical breakdown in high-voltage systems, ensuring safety and reliability. In other fields such as life science and space exploration, conductive polymers enable ultra-precise power and data transmission - any failure will lead to performance vulnerabilities in your system or process lifecycle.
With superior dielectric strength, thermal stability, and ESD resistance, specialized materials such as Rulon®, Meldin®, and Hycomp™ outperform traditional plastics and ceramics, driving innovation in next-gen electronics, medical devices, and aerospace technology.
Ranging from
10⁷ Ohm.cm to
10¹⁹ Ohm.cm
Ranging from
4 to 28 kV/mm
(100 to 700 V/mil)
High-performance polymers like Rulon®, Meldin®, and Hycomp™ are engineered to reduce wear and friction in extreme conditions. These materials offer long-lasting performance, thermal stability, and chemical resistance—making them ideal for bearings, liners, and other critical components across demanding industries.
Advanced polymers offer similar mechanical strength to metals but are significantly lighter and more resistant to wear, corrosion, and fatigue. They also provide better thermal and electrical insulation, making them a smart alternative in aerospace, medical, and industrial applications where weight and reliability are critical.
Yes, we offer high-performance PFAS-Free* options for select products. Use our assessment tool to determine if you can replace your current solutions with one of our custom-made PFAS-Free* alternatives.
*PFAS-Free here means we do not intentionally add PFAS material in the product, but does not exclude the possibility of traces, as these materials are common in the environment.
Explore real-world success stories where high-performance polymers solve critical engineering challenges—discover how industries like aerospace, medtech, and energy rely on advanced materials for unmatched durability, precision, and cost efficiency.
When you are traveling on a railway train, do you notice the bogie system? This critical equipment usually goes unnoticed as it is attached underneath the carriage by bearings along with axles and wheels. The moving system is important to safety
Because Carbon Capture & Storage (CCS) can achieve significant carbon dioxide (CO2) emission reductions, this process is considered a key and viable option within the portfolio of approaches required to reduce greenhouse gas (CHG) emissions. CCS involves three major steps; capturing CO2 at the source, compressing it for transportation, and then injecting into a deep reservoir at a carefully selected and safe site for permanent storage.
What provides energy to satellites? A common answer is the sun! Most satellites are equipped with solar panels that convert solar energy into electricity to power the intricate systems onboard. These panels can achieve about 34% efficiency versus the 15 to 20% from most commercial solar panels.
An Electric Propulsion Unit (EPU) refers to the integrated system responsible for generating and managing thrust in electric-powered aircraft. This complex system plays a critical role in powering electric vertical takeoff and landing (eVTOL) aircraft – part of advanced air mobility (AAM) technologies.
In complex industrial equipment such as hot runner systems, precision is a necessity. Hot runner and stack injection mold tools are designed to improve machine efficiency and product output for high quantity parts. Typically composed of sprue bushing, manifold, nozzle and gate components, the equipment also uses mold channels that are maintained at melt temperature.
Diagnostic blood and fluid testing is vital in modern healthcare, offering critical insights for disease detection, treatment decisions, and patient care optimization. An excellent example are hematology or blood clinical analyzers
