High-temperature nylon exhibits excellent dimensional stability, remaining unaffected by humid environments, ensuring precise dimensions and geometrical shapes.

Its low moisture absorption property allows it to maintain stable performance in humid conditions, reducing deformation caused by moisture.

High-temperature nylon boasts high rigidity and strength, capable of withstanding significant mechanical loads, making it suitable for applications demanding high rigidity.

This material can maintain stability in high-temperature environments without losing its strength and characteristics, making it suitable for high-temperature operating conditions.

High-temperature nylon's low warpage property helps it maintain shape stability at high temperatures, avoiding issues related to heat deformation or moisture absorption.

High-temperature nylon plays a crucial role in FPC connectors. Due to its excellent heat stability and chemical resistance, it can be used in high-density electronic connectors for SMT processes in high-temperature and high-density electronic connectors.

High-temperature nylon is used in high-temperature structural components such as engine parts, heat treatment equipment, and high-temperature sealing components. Its ability to maintain stability under extremely high temperatures makes it suitable for applications that require resistance to high-temperature heat deformation.

In the aerospace sector, high-temperature nylon is widely used in connectors and components due to its ability to withstand extreme temperatures and environmental conditions.

In water treatment and chemical industries, the corrosion resistance, high-temperature stability, and low moisture absorption of high-temperature nylon make it a choice for equipment such as pipes, valves, filters, etc.

High-temperature nylon is also gaining significant attention in the medical device and healthcare sector, especially in applications requiring high-temperature and chemical resistance.

LCP possesses exceptional chemical stability, resisting corrosion and chemical erosion.

LCP allows for precise injection molding, enabling complex geometries and intricate structures.

LCP exhibits high flowability, allowing it to fill complex molds and facilitate the manufacturing of intricate components.

LCP offers outstanding flame retardant properties and complies with the UL94V0 standard, making it suitable for various electronic and industrial applications.

LCP maintains low warpage properties at high temperatures, making it suitable for high-temperature environments and precision components.

LCP has low shrinkage characteristics, ensuring dimensional stability of finished parts.

LCP demonstrates excellent dimensional stability in high-temperature and humid environments, making it suitable for applications demanding precision.

LCP's low moisture absorption property allows it to maintain stable performance in humid conditions.

LCP performs exceptionally well in FPC connectors. Its high heat resistance, low warpage, and dimensional stability make it an ideal material for high-density connections.

LCP finds applications in medical devices, including high-temperature medical equipment, chemically resistant instruments, and reliable connectors.

Due to its high heat resistance and dimensional stability, LCP is used in motor coils and electrical components, especially in high-temperature and humid environments.

LCP's precision injection molding capabilities and dimensional stability make it suitable for optical applications like lens modules.

LCP is used in Sim card sockets and other electronic connectors, thanks to its superior dimensional stability and heat resistance, making it suitable for high-density connections.

LCP is employed in Central Processing Unit (CPU) connectors to achieve high-speed data transmission and reliable connections.

PPS exhibits outstanding chemical stability, resisting corrosion and chemical erosion.

PPS has excellent high-temperature resistance, maintaining structural stability under extreme temperatures.

PPS allows for precise injection molding, enabling complex geometries and intricate structures.

PPS has high flowability, allowing it to fill complex molds and facilitate the manufacturing of intricate components.

PPS offers outstanding flame retardant properties and complies with the UL94V0 standard, making it suitable for various electronic and industrial applications.

PPS maintains low warpage properties at high temperatures, making it suitable for high-temperature environments and precision components.

PPS has low shrinkage characteristics, ensuring dimensional stability of finished parts.

PPS demonstrates excellent dimensional stability in high-temperature and humid environments, making it suitable for applications demanding precision.

PPS's low moisture absorption property allows it to maintain stable performance in humid conditions.

PPS has a high Comparative Tracking Index (CTI) value, indicating its superior insulating performance in high-voltage environments.

Due to its high heat resistance and chemical stability, PPS is commonly used in the filter elements of hot gas filtration systems, effectively filtering in high-temperature and corrosive environments.

PPS is widely used in connectors for new energy vehicles, with its high heat resistance and dimensional stability making it an ideal choice for high-voltage electric systems.

Thanks to its chemical resistance, PPS is often used in fuel conduits, resisting fuel corrosion and ensuring reliable system operation.

PPS is also frequently applied in automotive parts like coolant pumps, thanks to its high heat resistance and chemical stability, enabling operation in high-temperature and corrosive environments.

PPS is used in battery O-rings (seals), effectively isolating the interior and exterior environments of batteries due to its low moisture absorption and chemical stability.

PEEK can be used at temperatures up to 250°C or higher while maintaining its mechanical properties.

PEEK has high tensile strength and rigidity, suitable for applications requiring high strength and wear resistance, such as gears, bearings, and structural components.

PEEK has excellent resistance to a wide range of chemicals, including strong acids, alkalis, and organic solvents, making it highly practical in chemical and medical fields.

PEEK has a low coefficient of friction and good wear resistance, suitable for parts requiring long-term movement, such as sliding bearings, seals, and gears.

PEEK has a certain degree of self-lubrication, reducing or eliminating the need for lubricating oil in some applications, lowering maintenance costs.

PEEK maintains stable electrical properties over a wide temperature range, making it suitable for electronic and electrical applications.

PEEK can withstand repeated stress and strain without fatigue failure, making it ideal for use in high-load cyclic environments.

PEEK has excellent biocompatibility, making it ideal for medical implants and other medical devices.

PEEK is relatively low in density, making it a good choice for lightweight component manufacturing compared to metals.

PEEK's high strength and temperature resistance make it widely used in aerospace, commonly for aircraft engine and structural parts, replacing metals to reduce weight.

PEEK is used in automotive applications for engine parts, transmission components, seals, and bearings, as it performs excellently under high temperatures and pressures, reducing maintenance and improving efficiency.

PEEK is biocompatible and chemically resistant, often used in implants, dental materials, and surgical instruments.

PEEK has excellent insulation, temperature, and chemical resistance, suitable for high-performance electronic components, connectors, cable insulation, and semiconductor equipment parts.

PEEK is wear-resistant, high-pressure resistant, and chemically resistant, ideal for valves, compressor parts, seals, and bearings in the oil and gas industry.

PEEK can be used for high-temperature components in food processing equipment due to its excellent chemical resistance and non-toxicity, meeting food-grade standards.

PEEK is suitable for high-performance 3D printing, especially in applications requiring high strength, temperature resistance, and chemical resistance, increasingly used in additive manufacturing.

PEI can be used at temperatures up to 200-220°C, maintaining its physical properties and stability even in high-temperature environments.

PEI has high strength, rigidity, and good creep resistance, maintaining mechanical stability even in harsh environments.

PEI is resistant to a wide range of chemicals, including many solvents, acids, and alkalis, making it suitable for use in chemical environments.

PEI has excellent electrical insulation properties, suitable for electronic and electrical applications in high-temperature environments, such as insulation materials, connectors, and plugs.

PEI itself is flame retardant and meets many safety standards, making it commonly used in applications requiring high flame resistance.

PEI is highly resistant to radiation, making it suitable for aerospace and nuclear industries where radiation-resistant materials are needed.

PEI can be processed by injection molding, extrusion, thermoforming, and can be compounded with glass fiber, carbon fiber, etc., to further enhance its properties.

PEI's high temperature resistance and strength make it suitable for manufacturing internal aircraft parts, structural components, and seat assemblies, replacing metals to reduce weight and improve fuel efficiency.

PEI is used in high-performance automotive parts, such as lamp reflectors, electronic connectors, sensor housings, transmissions, and engine components, due to its high temperature and excellent electrical properties.

PEI's insulation and heat resistance make it highly suitable for manufacturing connectors, circuit board substrates, transformer components, and electronic housings, particularly in applications requiring high insulation and stability.

PEI's insulation and heat resistance make it suitable for manufacturing connectors, circuit board substrates, transformer components, and electronic housings, especially in applications requiring high insulation and stability.

PEI is non-toxic and chemically resistant, meeting food-grade standards, and is commonly used in food processing equipment parts, such as mixers, pumps, and valves, capable of operating in high-temperature and harsh environments.

PEI's insulation performance and stability make it suitable for high-frequency communication equipment housings and internal components, especially in environments requiring high-temperature stability and electrical performance.

PEI's chemical resistance and low contamination properties make it suitable for semiconductor manufacturing parts, such as wafer holders and equipment components, ensuring no contaminants are released in high-precision, high-purity environments.

PEI can also be used as a high-performance 3D printing material, especially in applications requiring high temperature resistance, strength, and stability, making it an alternative to traditional plastics.