Aerospace

• Aluminum Alloy

• Titanium Alloys

• Stainless Steel

• Nickel-Based Alloys

• Polycarbonate (PC)

• Polyethylene (PE) and Polypropylene (PP)

• Polystyrene (PS) and Expanded Polystyrene (EPS)

• Polyimide (PI)

• Carbon Fiber Composites

• Fiberglass Composites

The selection of materials for aerospace products depends on many factors, including performance requirements, weight limitations, environmental conditions, and cost considerations. Therefore, different products may use different combinations of materials to meet their specific needs.2222

In the manufacturing of electronic components, CNC precision machining plays a crucial role, ensuring the precision and quality of various parts. In the production of low-Earth orbit satellites, CNC machining is used to manufacture components such as satellite bodies, solar panels, and communication antennas, ensuring their stability and reliability. Microwave communication manufacturing requires the production of high-frequency circuits, RF devices, and antennas, with CNC machining ensuring precision and the stability of microwave communication systems.

In the manufacturing of optical lens components, optical lenses, lens barrels, and other parts need CNC machining to ensure the performance and quality of the optical systems. Time-lapse photography manufacturing requires the production of camera bodies, mounts, lenses, and CNC precision machining ensures stability and quality. In the production of VAG automated guided vehicles (AGVs), the high-precision machining of components such as vehicle structures, tires, and electronic control systems ensures operational efficiency and stability. The manufacturing process of these parts is closely linked to CNC precision machining, ensuring the quality and performance of the products.

• CNC Lathe

• CNC Milling Machine

• Forging

• Aluminum Extrusion

• Stamping

• Plastic Injection

• Casting

• Rubber Molding

• Wire Forming

• Hot Pressing and Thermoforming3333

1.Surface Cleaning and Pre-treatment:

• Remove surface dirt, grease, and residues to ensure the effectiveness of subsequent treatments.

• Use methods such as solvent cleaning, acid washing, and alkaline washing for surface pre-treatment.

2.Surface Polishing and Buffing:

• Reduce surface roughness to the desired level through mechanical or chemical methods.

• Improve appearance quality, reduce surface defects, and enhance corrosion resistance.

3.Oxidation Treatment:

• Treat metal surfaces to form an oxide layer, improving corrosion and wear resistance.

• Methods include anodizing and other oxidation treatments.

4.Metallization Treatment:

• Cover the metal surface with a layer of metal to enhance corrosion resistance and mechanical properties.

• Includes processes like galvanizing, nickel plating, and chrome plating.

5.Painting and Coating:

• Use coatings to protect the surface, enhancing corrosion resistance, wear resistance, and appearance quality.

• Includes methods such as painting, powder coating, and electrophoretic coating.

6.Hardening Treatment:

• Increase the hardness and strength of materials through heat treatment or other methods.

• Includes heat treatment processes like quenching and tempering.

7.Surface Modification:

• Change surface properties through chemical or physical methods to improve mechanical, chemical, or optical performance.

• Methods include surface deposition, sputtering, and others.

8.Pore Sealing and Sealing:

• Seal micro-pores and cracks on the surface to prevent corrosion and liquid penetration.

• Includes methods like fluorocarbon sealing.

The application of these surface treatment techniques depends on the material of the product, design requirements, and desired final performance. Choosing the appropriate surface treatment method can enhance the durability, reliability, and appearance quality of the product.4444