Core Technologies

Secondary Positioning and Datum Unification: To address datum deviations resulting from welding deformation, thermoforming shrinkage, and bending springback, 3D scanning technology is utilized to reconstruct a precise machining coordinate system and re-establish positioning datums.

Inter-Process Precision Continuity: Ensures that components subjected to multiple composite processes recover and achieve the precise tolerances specified in the engineering drawings during the final machining stage, thereby eliminating any loss of precision between successive operations.

Single-Pass Machining of Complex Features: Leveraging three 5-axis simultaneous machining centers, we achieve integrated processing of deep cavities, angled holes, and freeform surfaces, thereby eliminating cumulative errors associated with multiple setups.

Micron-Level Precision Control: For critical mating surfaces in medical and semiconductor components, we achieve ultra-high precision standards—specifically flatness of ≤0.02 mm/m and perpendicularity of ≤0.03 mm—thereby ensuring seamless component compatibility.

Specialized Material Adaptation: With deep expertise in processing composite materials and engineering plastics—including FR4, PEEK, PTFE, and CP5—we utilize custom tooling and proprietary processes to comprehensively resolve common industry challenges such as material delamination, edge chipping, and stress-induced whitening.

High-Gloss Surface Finishing: Specifically tailored for dark-colored materials prone to visible machining marks—such as black ABS—we optimize tool paths and cooling protocols to achieve a high-gloss surface finish that is entirely free of whitening or burn marks.

End-to-End Precision Verification: Leveraging Coordinate Measuring Machines (CMMs), machining datums and critical features are inspected in real-time following each key process step, enabling the simultaneous correction of process deviations.

Intelligent Parameter Compensation: A comprehensive database correlating machining parameters with material characteristics is established; utilizing predictive algorithms, precision-compensated machining is executed to ensure consistent accuracy across mass production batches.