Years of Experience in Machined Parts Manufacturing

We are equipped with a wide range of advanced machinery, including turning, milling, grinding, drilling, and CNC machining, providing full-process coverage. Whether for simple parts or complex structures, we offer one-stop solutions to meet diverse machining needs, ensuring both product quality and production efficiency.

Utilizing advanced high-precision CNC machines and a rigorous inspection system, we achieve critical dimensional tolerances of ±0.005 mm, meeting the stringent accuracy standards required by high-end fields such as precision instruments, medical devices, and optics.

Breaking traditional batch limitations, supporting single-piece customized production, eliminating the need for inventory, and reducing trial-and-error costs. From sample validation to small-batch requirements, we flexibly handle orders to help streamline your R&D and production processes.

Streamlined production processes and a dedicated professional team enable standard parts to be delivered in as fast as 5 days, with rush orders prioritized for expedited processing. Reduced lead times to help you respond quickly to the market and seize new opportunities.








Systematically introduce the material properties of magnesium alloys AZ31/AZ91 (density 1.77 g/cm³, 35% lighter than aluminum), clarify the three core difficulties in machining magnesium alloys (fire risk/poor corrosion resistance/chip management), and cover their applicable scenarios and a material selection comparison with aluminum and titanium alloys.
Systematically introduce the principles, precision ranges, and application scenarios of the two EDM processes: Wire Electrical Discharge Machining (WEDM) and Sinker EDM. Explain the complementary relationship between EDM and CNC machining, including typical collaborative machining solutions and the logic for process selection.
Compare the differences in precision parts between humanoid robots and industrial robots across four dimensions—joint structure, drive method, material requirements, and precision characteristics—and explain the machining challenges of humanoid-specific components such as bionic joints, cable-driven mechanisms, and dexterous hand skeletons.
A systematic comparison of the three primary methods for thread machining in precision parts: Thread Turning (large diameter/high precision), Thread Milling (hard-to-machine materials/blind holes), Tapping (high efficiency for batch production), including the precision range, applicable scenarios, cost comparison, and selection criteria for each method.
