In recent years, with continuous innovation in the field of engineering materials, POM (Polyoxymethylene) has gained considerable attention due to its outstanding performance and wide range of applications. This article will delve into the performance characteristics, manufacturing processes, and applications of POM material, unveiling this gem in the field of plastic engineering.

I. Introduction to POM Material

POM, also known as Polyoxymethylene, is an engineering plastic with excellent mechanical properties, chemical stability, and superb processability. Its molecular structure contains organic groups, endowing it with excellent physical and chemical properties. POM exhibits high crystallinity and rigidity, performing exceptionally well in various environments.

II. Performance Characteristics of POM Material

  1. Outstanding Mechanical Performance: The high hardness and rigidity of POM enable it to excel in environments subjected to high loads and stresses, making it suitable for the manufacture of various mechanical components.
  2. Excellent Wear Resistance: POM’s low friction coefficient and good wear resistance make it widely applicable in areas such as bearings, gears, where resistance to wear is crucial.
  3. Strong Chemical Stability: POM’s resistance to chemical substances allows it to remain stable in various corrosive environments, making it extensively used in the chemical industry.
  4. Good Dimensional Stability: POM exhibits excellent dimensional stability at different temperatures, making it an ideal choice for the manufacturing of high-precision components.
  5. Excellent Processability: POM’s outstanding flowability and moldability enable the production of complex-shaped parts through various processing methods such as injection molding and extrusion.

III. Manufacturing Process of POM Material

The manufacturing of POM typically involves polymerization, where formaldehyde molecules are polymerized to construct polymer chains. The process requires careful consideration of parameters such as temperature and pressure to optimize the physical properties of POM. After the polymerization reaction, POM is usually shaped into the desired form through processes like extrusion or injection molding.

IV. Applications of POM in Engineering Fields

  1. Automotive Industry: POM is widely used in automotive components such as gears, bearings, and fuel injectors due to its wear resistance, oil resistance, and chemical corrosion resistance.
  2. Electronics: POM’s dimensional stability and electrical insulation properties make it an ideal choice for manufacturing connectors, switches, sliding parts, and other electronic components.
  3. Medical Devices: POM’s non-toxic, tasteless, and antibacterial properties contribute to its increasing use in medical instruments, surgical tools, and infusion devices.
  4. Construction Machinery: POM’s high rigidity and wear resistance make it extensively utilized in construction machinery for the manufacturing of gears, bearings, and guiding components.
  5. Sports Equipment: POM’s application in sports equipment, such as fasteners on ski boards and gear systems in athletic shoes, enhances the lightweight and durable characteristics of sports gear.

V. Future Development Trends of POM Material

As technology advances and the pursuit of material performance continues, POM material is expected to see more innovation and application in the following areas:

  1. Environmental Performance Enhancement: Future developments in POM may focus on improving its degradability and recyclability to minimize environmental impact.
  2. High-Performance Characteristics: Through improved manufacturing processes and the addition of new reinforcing agents, enhancing POM’s high-temperature resistance and strength will expand its application areas.
  3. Multifunctional Applications: In the future, POM is likely to demonstrate more multifunctional applications in fields such as medical, electronics, aerospace, meeting diverse performance requirements in different sectors.


As an excellent engineering plastic, POM plays a crucial role in mechanical, electronic, medical, and various other industries. Its outstanding performance and broad application prospects make it a shining jewel in the field of plastic engineering. With continuous technological advancements, POM is expected to exhibit even more remarkable performance and find broader applications in the future.

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