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Commonly used materials for injection molding:
Acrylonitrile butadiene styrene (ABS) : ABS is an engineering grade thermoplastic known for its strength, impact resistance and gloss. It is widely used in electronic components, electronic enclosures and auto parts.
Nylon polyamide (PA) : nylon has high wear resistance, noise reduction and fatigue resistance, and is often used in the manufacture of mechanical parts and enclosures.
Polycarbonate (PC) : PC is a strong, transparent plastic with high durability, chemical resistance and predictable mold shrinkage, commonly used in mechanical guards and LED tubes.
Polyethylene (PE): PE is divided into HDPE, LDPE and PET according to density, which has chemical resistance and low cost, while PET has high transparency. Polyformaldehyde (POM) : POM is an engineering plastic suitable for parts requiring low friction and high stiffness, but with low impact strength.
Ppolypropylene (PP) : PP is a hard and heat-resistant plastic with good chemical resistance and recyclability. It is often used in disinfection and industrial products.
Acrylic (PMMA) : Acrylic is a strong, clear thermoplastic suitable for construction and lighting applications. It has high tensile strength, light resistance and shattering resistance, and does not release bisphenol A.
Complexity & Precision: The injection molding process handles highly complex part designs, provides consistency, and has the ability to manufacture millions of nearly identical parts. Modern injection molding technology allows the mass production of precision moulded plastic parts with very small tolerances for applications where high precision is required.
Production Efficiency: The injection molding process is fast, usually only 15-120 seconds between each molding cycle, which makes it possible to produce more parts in a given time. In addition, the different skill sets of injection mold engineers help to shorten product development time, speed up production cycles and get products to market faster.
Strength & Durability: Modern lightweight thermoplastics offer a significant increase in strength, even rivaling and in some cases exceeding metal parts. Injection molded products have good wear resistance, corrosion resistance, can be used in harsh environment for a long time, improve product life.
Cost-effective Solution: The injection molding process of the mold manufacturing is convenient, short cycle, low cost. In addition, the labor costs of injection molding operations are also relatively low, helping to reduce overall manufacturing costs. Injection molding can reduce the cost of a single product by diluting the cost through mass production.
Environmental Performance : with the improvement of environmental awareness, the future injection molding products will pay more attention to environmental performance, the use of degradable and recyclable environmental protection materials, reduce the pollution to the environment.
Lightweight and portability: injection molding products usually have the characteristics of lightweight, help to reduce the weight of the product, easy to carry and transport, reduce energy consumption.
Tailored Customization: Adaptable to unique specifications (size, thickness, geometry) for optimized load distribution and compatibility with diverse machinery.
Industrial Machinery: Motor housings, conveyor systems, and pump enclosures for noise reduction and mechanical stress absorption.
Consumer Electronics: Washing machines, HVAC units, and power tools to dampen operational vibrations and prolong lifespan.
Outdoor Equipment: Agricultural machinery, solar panel mounts, and marine hardware resistant to UV, moisture, and chemical exposure.
Medical Devices: Precision equipment requiring sterile, corrosion-resistant, and low-maintenance components.
Renewable Energy: Wind turbine assemblies and battery housings for shock absorption in high-vibration environments.
Robotics/Automation: Joints and actuator systems to minimize wear from repetitive motion and ensure smooth operation.
Aerospace & Defense: Customized rings for avionics or machinery requiring lightweight, high-strength materials under extreme conditions.
Packaging:
FAQ:
Q1: What temperature range can this component withstand?
A1: It operates reliably between -50°C to 80°C, though specific tolerances can be customized based on application requirements.
Q2: How long does custom tooling or production take?
A2: Lead times vary by design complexity, but standard orders typically ship within 2-4 weeks after finalizing specifications.
Q3: Can it replace metal shock-absorbing components?
A3: Yes, its corrosion resistance, noise reduction, and weight efficiency make it a superior alternative in many automotive and industrial applications.
Q4: What is your payment term for the tooling of plastic products?
A4: 50% down payment, and rest paid against tooling approval.
Q5: Who own the tooling?
A5: The one who pay for the tooling.
Commonly used materials for injection molding:
Acrylonitrile butadiene styrene (ABS) : ABS is an engineering grade thermoplastic known for its strength, impact resistance and gloss. It is widely used in electronic components, electronic enclosures and auto parts.
Nylon polyamide (PA) : nylon has high wear resistance, noise reduction and fatigue resistance, and is often used in the manufacture of mechanical parts and enclosures.
Polycarbonate (PC) : PC is a strong, transparent plastic with high durability, chemical resistance and predictable mold shrinkage, commonly used in mechanical guards and LED tubes.
Polyethylene (PE): PE is divided into HDPE, LDPE and PET according to density, which has chemical resistance and low cost, while PET has high transparency. Polyformaldehyde (POM) : POM is an engineering plastic suitable for parts requiring low friction and high stiffness, but with low impact strength.
Ppolypropylene (PP) : PP is a hard and heat-resistant plastic with good chemical resistance and recyclability. It is often used in disinfection and industrial products.
Acrylic (PMMA) : Acrylic is a strong, clear thermoplastic suitable for construction and lighting applications. It has high tensile strength, light resistance and shattering resistance, and does not release bisphenol A.
Complexity & Precision: The injection molding process handles highly complex part designs, provides consistency, and has the ability to manufacture millions of nearly identical parts. Modern injection molding technology allows the mass production of precision moulded plastic parts with very small tolerances for applications where high precision is required.
Production Efficiency: The injection molding process is fast, usually only 15-120 seconds between each molding cycle, which makes it possible to produce more parts in a given time. In addition, the different skill sets of injection mold engineers help to shorten product development time, speed up production cycles and get products to market faster.
Strength & Durability: Modern lightweight thermoplastics offer a significant increase in strength, even rivaling and in some cases exceeding metal parts. Injection molded products have good wear resistance, corrosion resistance, can be used in harsh environment for a long time, improve product life.
Cost-effective Solution: The injection molding process of the mold manufacturing is convenient, short cycle, low cost. In addition, the labor costs of injection molding operations are also relatively low, helping to reduce overall manufacturing costs. Injection molding can reduce the cost of a single product by diluting the cost through mass production.
Environmental Performance : with the improvement of environmental awareness, the future injection molding products will pay more attention to environmental performance, the use of degradable and recyclable environmental protection materials, reduce the pollution to the environment.
Lightweight and portability: injection molding products usually have the characteristics of lightweight, help to reduce the weight of the product, easy to carry and transport, reduce energy consumption.
Tailored Customization: Adaptable to unique specifications (size, thickness, geometry) for optimized load distribution and compatibility with diverse machinery.
Industrial Machinery: Motor housings, conveyor systems, and pump enclosures for noise reduction and mechanical stress absorption.
Consumer Electronics: Washing machines, HVAC units, and power tools to dampen operational vibrations and prolong lifespan.
Outdoor Equipment: Agricultural machinery, solar panel mounts, and marine hardware resistant to UV, moisture, and chemical exposure.
Medical Devices: Precision equipment requiring sterile, corrosion-resistant, and low-maintenance components.
Renewable Energy: Wind turbine assemblies and battery housings for shock absorption in high-vibration environments.
Robotics/Automation: Joints and actuator systems to minimize wear from repetitive motion and ensure smooth operation.
Aerospace & Defense: Customized rings for avionics or machinery requiring lightweight, high-strength materials under extreme conditions.
Packaging:
FAQ:
Q1: What temperature range can this component withstand?
A1: It operates reliably between -50°C to 80°C, though specific tolerances can be customized based on application requirements.
Q2: How long does custom tooling or production take?
A2: Lead times vary by design complexity, but standard orders typically ship within 2-4 weeks after finalizing specifications.
Q3: Can it replace metal shock-absorbing components?
A3: Yes, its corrosion resistance, noise reduction, and weight efficiency make it a superior alternative in many automotive and industrial applications.
Q4: What is your payment term for the tooling of plastic products?
A4: 50% down payment, and rest paid against tooling approval.
Q5: Who own the tooling?
A5: The one who pay for the tooling.