Design. Execute. Deliver.

Our experienced engineering and production team provides strong technical support throughout every stage. With reliable processes and precise execution, we turn ideas into high-quality products that meet customer requirements flawlessly.

01

CNC Milling Machining

The milling cutter rotates to perform cutting operations on a fixed workpiece, suitable for machining various complex shapes.

  • Capable of machining various shapes, with high flexibility
  • Can process multiple surfaces and profiles in one operation, improving machining efficiency

Widely used for machining shafts, sleeves, and other parts in industries like automotive, aerospace, and medical devices.

High material selectivity, balancing dimensional precision and surface roughness.

Customized according to requirements

02

CNC lathe Machining

The workpiece rotates while a fixed tool performs cutting operations, commonly used for machining cylindrical surfaces, conical surfaces, and internal holes.

  • Suitable for machining symmetrical parts (such as shafts and sleeves)
  • High machining efficiency with uniform tool force

Widely used for machining shafts, sleeves, and other parts in industries like automotive, aerospace, and medical devices.

High material selectivity, high dimensional precision, and aesthetically pleasing appearance.

Customized according to requirements

03

Grinding Machining

The grinding wheel rotates to perform surface machining through the cutting action of abrasives, mainly used to improve the surface finish and precision of workpieces.

  • Capable of achieving high precision and good surface quality, especially suitable for hard material machining
  • Suitable for finishing and fine machining, capable of removing minor surface defects on workpieces

Widely used for deep processing of precision parts and repair of mold bending and wear.

Stable dimensional precision and surface roughness of the product.

Customized according to requirements

04

Turn-mill Combination Machining

Combining turning and milling processes on a single machine tool to achieve integrated machining.

  • Reduces the time for workpiece clamping and tool changing, enabling one-time completion of multiple processes
  • During compound machining, no re-clamping of the workpiece effectively reduces positioning errors and improves machining accuracy
  • Integrates multiple machining functions, reducing the need for multiple machine tools, saving production space and equipment investment

Applied in aerospace, automotive manufacturing, electronic components, and other fields, especially suitable for machining parts with high precision and complex geometries.

Meets the customized requirements for shaft pins in electronics, medical devices, and consumer products.

Customized according to requirements

05

Spark-erosion Machining

Electric current generates discharge between the gaps of two electrodes, locally heating and melting the workpiece surface. The resulting metal vapor and tiny particles are then ejected from the workpiece surface, achieving material removal.

  • Capable of achieving very high machining precision, reaching the micron level
  • Suitable for machining complex shapes, internal cavities, and parts that are difficult to process using traditional methods
  • No mechanical force is applied during machining, avoiding mechanical stress and deformation of the workpiece, suitable for thin-walled or fragile materials

Widely used in mold making, precision part machining, aerospace, automotive industry, and medical devices, especially showing unique advantages in manufacturing complex shapes and small holes.

Capable of achieving part structures that are difficult to process using traditional methods.

Customized according to requirements

06

Wire-electrode Cutting

High-frequency current generates pulsed discharge between the moving metal wire and the workpiece. The high temperature in the current locally melts and vaporizes the metal of the workpiece, ultimately achieving material removal.

  • Extremely high machining precision, typically reaching ±5 μm to ±20 μm, suitable for machining complex-shaped parts
  • High surface quality with good surface finish, suitable for applications with high surface requirements
  • Capable of machining a variety of conductive materials, including hard alloys, steel, aluminum, etc., and suitable for brittle materials
  • Capable of cutting complex curves, holes, and irregular shapes, especially outstanding in mold making

Widely used in mold making, mechanical parts, aerospace, electronic devices, and medical equipment, especially for high-precision and complex geometry parts machining.

Performs well in cutting complex curves, holes, and irregular-shaped parts.

Customized according to requirements

Per customer design