Welcome to the world of Engineered Polymers, where innovation meets precision. Engineered polymers encompass a diverse family of thermoplastics, each designed to meet specific demands across various industries. At Americorp, we offer a comprehensive range of Engineered Polymer products, including:

Why Choose Americorp’s Engineered Polymer Solutions:

  • Quality Assurance: We partner with reputable producers to ensure the quality and consistency of our Engineered Polymer materials.
  • Technical Expertise: Our team of experts can assist you in selecting the right Engineered Polymer for your unique application.
  • Customization: Americorp offers tailored solutions to meet your specific requirements, ensuring maximum performance and cost-effectiveness.

PAC6 (Polyamide 6)

PAC6, or Polyamide 6, is a semicrystalline thermoplastic renowned for its well-balanced properties:

  • Strength: PAC6 provides impressive strength, making it suitable for applications where durability is paramount.

  • Stiffness: It offers excellent stiffness, ensuring that products maintain their shape and structural integrity.

  • Chemical Resistance: PAC6 exhibits strong chemical resistance, allowing it to withstand exposure to various chemicals.

  • Improved Surface Appearance: It boasts an improved surface appearance compared to PA 66, enhancing the aesthetic appeal of end products.

  • Processability: PAC6 is easy to process, making it an ideal choice for extrusion (e.g., fibers and profiles) and injection molding applications.

PAC6.6 (Polyamide 6.6)

PAC6.6, or Polyamide 6.6, stands out for its remarkable combination of properties:

  • Mechanical Properties: PAC6.6 offers an excellent balance of mechanical properties, including strength, stiffness, and impact resistance.

  • Heat and Chemical Resistance: It demonstrates exceptional resistance to heat and chemicals, making it a top choice for demanding environments.

  • Metal Replacement: PAC6.6 is often considered an outstanding candidate for metal replacement due to its robustness and versatility.

PA Compounds (Modified Polyamides)

Polyamides (PAs) are highly adaptable and can be modified to meet specific performance requirements:

  • Mechanical Enhancement: PA compounds can be modified with fillers and fibers to improve mechanical properties such as strength and stiffness.

  • Heat and Chemical Resistance: Internal lubricants and impact modifiers can be added to enhance heat and chemical resistance.

  • Customization: PA compounds are tailored to meet the unique demands of end-use and application requirements, ensuring that they excel in diverse industries.

Blends (Polymer Alloys)

Polymer blends, or alloys, are formed by mixing multiple polymers to create new materials with unique properties, offering versatility through careful polymer selection.

  • Versatility: Blends offer a versatile platform to create materials with custom properties that suit specific application requirements.

  • Performance Enhancement: By blending polymers with complementary attributes, we can achieve materials with enhanced mechanical, thermal, and chemical properties.

  • Application Diversity: Blends can be tailored for use in a wide range of industries, from automotive and aerospace to electronics and consumer goods.

POM C (Polyacetal Copolymer)

POM C, also referred to as polyacetal copolymer or acetal resin, is a highly crystalline engineering plastic renowned for its exceptional properties:

  • Strength and Rigidity: POM C boasts remarkable strength and rigidity, making it suitable for applications where robustness is paramount.

  • Low Coefficient of Friction: It exhibits a low coefficient of friction compared to metals and other plastics, which is advantageous in applications requiring reduced friction and wear.

  • Creep Resistance: POM C is known for its resistance to deformation under load, ensuring dimensional stability over time.

  • Applications: It is recommended for applications where mechanical precision and low friction are essential, such as gears, bearings, and components in the automotive and industrial sectors.

POM H (Polyacetal Homopolymer)

POM H, or Polyacetal Homopolymer, elevates the performance bar with its enhanced attributes:

  • Higher Mechanical Strength: POM H offers superior mechanical strength, hardness, and rigidity compared to POM C.

  • Creep Resistance: It is exceptionally creep-resistant, maintaining dimensional stability even under heavy loads and extended use.

  • Low Coefficient of Thermal Expansion: POM H exhibits a lower coefficient of thermal expansion, making it suitable for applications with stringent temperature requirements.

  • Applications: POM H is ideal for applications where exceptional mechanical properties, dimensional stability, and resistance to thermal expansion are essential, such as precision engineering components and high-performance machinery.

PC (Polycarbonate)

Polycarbonate, often abbreviated as PC, is celebrated for its impressive combination of properties:

  • Transparency: PC provides exceptional transparency, making it an ideal choice for applications where clarity is paramount.

  • Mechanical Properties: It boasts good mechanical properties, offering strength and durability that rival traditional materials.

  • Versatility: PC is used in a wide range of applications, including electronic devices, frames, panels, and household items, where transparency is a key requirement.

  • Similar to ABS: Processing and molding conditions for PC are similar to those of ABS, simplifying the manufacturing process.

PPS (Polyphenylene Sulfide)

Polyphenylene Sulfide, or PPS, is a semicrystalline polymer renowned for its exceptional properties:

  • High-Temperature Resistance: PPS excels in high-temperature environments, maintaining its structural integrity and properties under extreme heat.

  • Chemical Resistance: It offers outstanding chemical resistance, making it an ideal choice for applications exposed to aggressive chemicals.

  • Dimensional Stability: PPS is highly dimensionally stable, ensuring that products maintain their shape and integrity over time.

  • Flame Retardancy: Due to its inherent flame retardancy, PPS is often utilized in electrical applications requiring both high-temperature resistance and fire safety.

  • Moldability: PPS, despite its impressive properties, has low viscosity, allowing it to be molded even with high levels of fillers and reinforcements.