With the rapid development of artificial intelligence in fields such as robotics, automation equipment, machine vision, and data centers, higher requirements haveWith the rapid development of artificial intelligence in fields such as robotics, automation equipment, machine vision, and data centers, higher requirements have

Common CNC Machined Components and Material Solutions in the Artificial Intelligence Field

5 min read

With the rapid development of artificial intelligence in fields such as robotics, automation equipment, machine vision, and data centers, higher requirements have been placed on the precision, reliability, and long-term stability of hardware systems. From core computing equipment to precision motion mechanisms, CNC machining has become an indispensable key process in the manufacturing of artificial intelligence hardware.

Among various material choices, in addition to aluminum alloys and stainless steel, bronze CNC machined components demonstrate unique advantages in specific AI application scenarios, especially for key parts that require high wear resistance, low friction, and continuous operation.

Common CNC Machined Components and Material Solutions in the Artificial Intelligence Field

9 Common CNC Machined Components in the AI Field

1. AI Server Enclosures and Structural Frames

Used to carry high-power GPUs and accelerator cards, CNC-machined aluminum alloy or copper alloy structural components are commonly adopted, improving strength, heat dissipation performance, and dimensional stability.

2. Heat Sinks and Liquid Cooling Plates

CNC machining can produce complex micro-channel structures and high-density heat dissipation designs. CNC bronze components are core parts of heat dissipation systems and cooling systems.

3. Robot Joint Housings

As one of the core structural components of AI robots, aluminum alloy or high-strength materials are usually adopted. Through CNC machining, a balance between lightweight design, high strength, and self-lubricating performance is achieved.

4. Precision Transmission Shafts and Connecting Components

These components involve high coaxiality, symmetry, roundness, and wear resistance. CNC turning combined with precision cylindrical grinding processes is often used, which can effectively improve production speed and machining quality while ensuring surface smoothness and low friction characteristics.

5. Reducer Gears and Housings

Widely applied in robotic arms and precision components of AI automation equipment, these parts require certain levels of gear profile accuracy and assembly stability.

6. Sensor Housings

Used as enclosure and decorative components for AI sensing systems such as vision, force control, and LiDAR. High-precision machining ensures sealing performance and electromagnetic shielding capability.

7. Optical Barrels and Lens Mounts

These are key components in vision systems with high precision requirements. They play an important role in machining accuracy, with strict requirements for concentricity and surface quality. CNC machining can effectively improve assembly performance and stability.

8. AI Camera Housings

These housings are mainly used as structural frames for industrial inspection and recognition systems, requiring stable structures and high batch consistency.

9. Motor End Covers and Housings

Bronze precision cover housings can be used for protective and shielding purposes, ensuring the stability and safe operation of power generation systems, and directly affecting the operational reliability of AI drive systems.

Applications of Bronze CNC Machining in AI Components

In certain AI hardware with high wear, high-frequency motion, or long-term continuous operation, bronze materials show significant advantages and are commonly used in the following components:

AI robot joint bushings and sliding bearings, bushings and guide components in precision transmission systems, bearing seats and liners for AI drive motors, high-precision positioning components and fine adjustment mechanisms, and wear-resistant connecting components in automation equipment.

Through CNC machining, bronze components can achieve high coaxiality, complex internal hole structures, and stable fitting accuracy.

Typical Advantages of Bronze CNC Machining in the AI Field

Good Self-Lubricating Performance

During friction, bronze can form a stable lubricating film, effectively reducing the friction coefficient and minimizing wear of moving parts. It is suitable for AI equipment that requires long-term operation with low maintenance frequency.

Strong Anti-Galling Capability

When paired with steel or other metals, bronze is less prone to adhesive wear, avoiding galling problems under high-speed or heavy-load conditions and improving the operational reliability of AI equipment.

Suitable for Continuous Operating Conditions

Under high-frequency and high-load continuous operation, bronze can maintain stable mechanical properties and dimensional accuracy, significantly extending the service life of artificial intelligence equipment.

Common Bronze Material Types in the Artificial Intelligence Field

Phosphor Bronze: Suitable for High-Elasticity and Fatigue-Resistant Components

It has excellent elasticity and fatigue strength, making it suitable for AI transmission and connecting components subjected to repeated loading.

Aluminum Bronze: High Strength and High Wear Resistance, Suitable for Heavy-Load AI Equipment

With strength close to some steel materials, aluminum bronze also offers good wear resistance and corrosion resistance, making it suitable for heavy-load AI robots and industrial automation equipment.

Tin Bronze: Excellent Sliding Performance, Commonly Used for Bushings and Guide Components

It performs stably under sliding friction conditions and is widely used in guide mechanisms and precision bushings in AI equipment.

Oil-Impregnated Bronze: Suitable for Maintenance-Free or Low-Maintenance AI Systems

Its internal oil-containing structure continuously releases lubricating media during operation, making it suitable for unattended AI systems or those with low maintenance cost requirements.

Typical Application Scenarios of Bronze CNC Machining in the AI Field

High-End Service Robots

Used in joint bushings, sliding supports, and transmission connection parts to reduce wear and improve stability and service life in medical and service scenarios.

Industrial AI Automation Production Lines

Applied in transmission systems and guiding mechanisms to reduce downtime and maintenance frequency, ensuring continuous and stable production line operation.

Precision AI Inspection and Vision Equipment

Used in positioning components and fine adjustment mechanisms to ensure high repeatability and consistent inspection results.

Intelligent Manufacturing Equipment

The use of bronze CNC machined parts in key motion and load-bearing positions can significantly improve overall durability and operational reliability.

Conclusion

In artificial intelligence hardware manufacturing, CNC machining is not only the fundamental process for achieving high-precision structures, but also a core capability supporting the long-term stable operation of AI equipment. Among them, bronze CNC machining, as an important material solution, has irreplaceable value in wear-resistant, low-friction, and continuous operation scenarios. As AI equipment continues to develop toward high performance, low maintenance, and high reliability, bronze CNC machined components will play an increasingly important role in the artificial intelligence industry chain.

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