How to Achieve High-Gloss and Anti-Static CNC Machining for Electronic Equipment Housings
5 min
In the electronic equipment industry, the design and processing of the housing not only concerns the appearance of the product, but also affects the functionality and user experience, CNC machining technology has become one of the core processes for the processing of electronic equipment housings due to its high precision and flexibility. However, how to achieve high-gloss effect and anti-static treatment in the process is an important issue to improve product quality and competitiveness. In this paper, we will discuss in-depth CNC machining of electronic equipment enclosure highlighting and anti-static treatment technology, to provide practical solutions to help you stand out in the Google search.
I. Highlighting of CNC machining of electronic equipment housings
1. The importance of highlighting
A high-gloss finish is a key aesthetic and functional element in electronic equipment housing design, which not only enhances the aesthetics of the product, but also enhances the user's tactile experience. For example, the high-gloss chamfering design of the metal frame of mobile phones not only enhances the high-end feeling of the product, but also reduces fingerprint residue.
2. Highlighting process and equipment
Precision CNC machine tools: High-gloss processing requires the use of high-precision CNC machine tools. This type of equipment can achieve surface roughness Ra ≤ 0.4μm to ensure the uniformity of the highlighting effect.
Diamond tools: diamond tools are the key to high-gloss processing, and their high hardness and wear resistance can ensure the smoothness of the processed surface. For example, when machining aluminium alloy shell, the front angle of the tool is 0°, the back angle is between 5° and 10°, and the radius of the tip arc is 0.5-5mm.
Optimisation of machining parameters: the cutting speed is usually controlled at about 30m/s, and the feed and rotational speed need to be dynamically adjusted according to the material characteristics in order to avoid surface scratches and ripples.
3. Application scenarios of high-gloss processing
Mobile phone shell: aluminium alloy or stainless steel shell of the high-gloss chamfering design, to enhance the product texture.
Digital products shell: such as tablet PCs, camera shell of high-gloss border design, enhance brand recognition.
II. Anti-static treatment of electronic equipment shells
1. The need for anti-static treatment
The anti-static performance of electronic equipment shell is directly related to the stability and safety of the equipment. Static electricity will not only lead to abnormal operation of the equipment, but also may damage the internal circuit. Therefore, anti-static treatment is an indispensable part of the processing of electronic equipment shell.
2. Anti-static treatment process
Surface sandblasting: through the sandblasting process in the metal surface to form a small bumpy structure, reduce the possibility of static electricity accumulation.
Oxidation treatment: after anodic oxidation of aluminium alloy shell, a dense oxide film is formed on the surface, which not only improves the corrosion resistance, but also enhances the anti-static ability.
Plating and coating: Plating a layer of conductive material (such as nickel or copper) on the metal surface, or coating conductive coating, can effectively disperse static electricity.
3. Anti-static treatment of material selection
Aluminium alloy: aluminium alloy surface conductivity is better, suitable for anti-static treatment.
Stainless steel: stainless steel surface resistance is low, naturally has a certain anti-static properties.
III. Highlighting and anti-static treatment process optimisation
1. Key points of the combination of technology
Processing sequence: highlighting is usually carried out before the anti-static treatment to avoid the anti-static coating affects the highlighting effect.
Parameter adjustment: After highlighting, the process parameters of anti-static treatment (such as sand blasting pressure, oxidation voltage) need to be adjusted to ensure the stability of the surface properties.
2. Material and equipment selection
Material selection: aluminium alloy is the ideal choice for high-gloss and anti-static treatment, because of its good conductivity and easy to process.
Equipment selection: CNC processing plant equipped with highlighting machine and oxidation equipment can achieve highlighting and anti-static treatment seamless.
IV. Electronic equipment shell processing industry applications
1. Smartphone shell
Aluminium alloy or stainless steel shell of high-gloss chamfer design, combined with anti-static oxidation treatment, become the standard of high-end smart phones.
2. Tablet PC and notebook shell
Metal shell of high-gloss edge design, with anti-static coating, to enhance the durability and safety of the equipment.
3. Smart home equipment shell
Such as smart speakers, smart door locks metal shell, through the high-gloss and anti-static treatment, to achieve the combination of high-end texture and functionality.
V. JLCCNC: a professional service provider of electronic equipment shell processing
JLCCNC focuses on providing high-precision, high finish electronic equipment shell machining services, is committed to meeting the needs of various industries on complex parts:
Technical strength:
Equipped with advanced 5-axis CNC machining centre and 100,000 rpm high-gloss machine to ensure surface finish Ra≤0.4μm.
Professional team optimises machining parameters to reduce tool wear and cutting temperature and improve surface quality.
Service Advantage:
Provide full process service from design to delivery to meet the demand of small batch customisation and mass production.
Rapid response, provide quotation within 24 hours and deliver the first sample within 72 hours.
Industry Applications:
Smart phones, tablet PCs, smart home devices and other fields, helping customers to improve product quality and market competitiveness.
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