Application Fields
Precision machined parts, with their micrometer-level precision and the ability to process complex geometries, play a crucial role in multiple high-tech fields. The core applications of these parts are as follows:
01 Electronic and Semiconductor Equipment
🔬
Lithography machine components: The silicon wafer carrier needs a flatness of ≤ 0.1 μm/100mm, and it is processed using a precision grinding method on a granite base.
📡
5G base station filter: Cavity processing accuracy ±0.01mm, complex internal cavity structure is achieved through slow wire electrical discharge machining.
02 Medical Devices and Biotechnology Engineering
🦾
Surgical robot joint: Made of 316L stainless steel, precisely processed, with a mating clearance of ≤ 10 μm, ensuring smooth movement.
🦴
Implantable device: The surface of the artificial joint needs to be mirror-polished Ra ≤ 0.2 μm to reduce tissue friction. The material is cobalt-chromium alloy.
03 Automobile and New Energy Field
⚡
Electric drive system: The motor shaft is made of carburized steel 20CrMnTi, with gear shape accuracy reaching DIN 6 level, reducing transmission noise.
🔋
Hydrogen fuel cell bipolar plate: Flow channel depth tolerance ±0.02mm, achieved through ultra-precise stamping for micrometer-level sealing.
04 Aerospace and Defense Industry
✈️
Aircraft engine components: Such as turbine blades and fuel nozzles need to meet geometric tolerances of ≤ 5 μm, surface roughness of Ra ≤ 0.4 μm. Complex curved surfaces are formed through five-axis CNC processing.
🚀
Missile guidance system: The inertial navigation components (such as gyroscope mounts) need to ensure micrometer-level coaxiality through precise turning. The materials are mostly titanium alloy TC4.
Frequently Asked Questions (FAQ)
Q
What level of precision can your CNC machining achieve?
Our multi-axis CNC machining centers can achieve tolerances as tight as ±0.005mm, and in specific applications, precision can reach up to 0.0025mm. Every part undergoes a strict quality inspection process to ensure it meets the dimensional requirements of high-end industries such as aerospace and medical devices.
Q
What materials can be processed for precision machined parts?
We support a wide range of materials including stainless steel (e.g., 316L), aluminum alloy, titanium alloy (e.g., TC4), copper, cobalt-chromium alloy, carburized steel (e.g., 20CrMnTi), and various engineering plastics. Surface treatments such as passivation, mirror polishing, and coating are also available based on your requirements.
Q
Which industries do your precision machined parts serve?
Our precision machined parts are widely used across multiple industries, including electronics and semiconductor equipment, medical devices and biotechnology, automotive and new energy (EV and hydrogen fuel cell), aerospace and defense, precision instruments, communication equipment, and automated machinery.
Q
Can you machine complex geometries and internal cavity structures?
Yes. By utilizing multi-axis linkage (5-axis) CNC technology and processes such as slow wire electrical discharge machining (EDM), we are capable of producing highly complex geometric shapes, including intricate internal cavities (e.g., 5G filter cavities at ±0.01mm), curved turbine blades, and medical device components with tight mating clearances.
Q
What surface finish standards can be achieved for medical or implantable parts?
For medical and implantable applications, we can achieve mirror-polished surfaces with a roughness of Ra ≤ 0.2 μm, which is critical for reducing tissue friction in artificial joints. All medical-grade parts comply with strict biocompatibility and dimensional standards.
Q
How do you ensure quality for aerospace-grade components?
Aerospace components such as turbine blades and fuel nozzles are manufactured using five-axis CNC processing with geometric tolerances controlled to ≤ 5 μm and surface roughness of Ra ≤ 0.4 μm. Our quality assurance process includes coordinate measuring machine (CMM) inspection, surface roughness testing, and material traceability documentation to meet the stringent requirements of the aerospace and defense industry.