High Precision and Efficiency: Delivers high machining accuracy to meet stringent requirements in aerospace and automotive manufacturing; Highly automated.
Flexible Design and Material Adaptability: Supports rapid design adjustments based on customer needs, minimizing inventory risks;
Complex Geometry Machining Capability: Capable of processing complex surfaces, spiral structures, and micro-holes; Achieves high-precision machining through 2-axis or 3-axis interpolation.
High Repeatability and Stability: Batch production is enabled by pre-programming to ensure consistent part dimensions and surface quality; Real-time monitoring of machining parameters (e.g., temperature, pressure) with automatic adjustments to maintain precision stability.
Process Optimization and Cost Control: Quick adaptation to new parts through tool changes and programming adjustments; CNC programming optimizes machining processes, minimizes material waste, and enhances cost efficiency.
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At Xuyuan, we begin with a digital blueprint created in CAD (Computer-Aided Design). This model is then processed through CAM (Computer-Aided Manufacturing) software to generate G-code—the specialized language that directs the CNC machine on tool movements, spindle speeds, feed rates, and positional control.
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The raw material—whether metal, plastic, wood, or another compatible substrate—is firmly fixtured within the CNC system. From there, the machine performs high-precision operations such as milling, drilling, cutting, or contouring across multiple axes (X, Y, and Z) to fabricate parts with complex shapes and tight tolerances.
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Following machining, components may be refined through secondary finishing steps like deburring, polishing, or surface coating to fulfill final design and functional requirements.
1 Material Quality Inspection
2 Dimensional (or Precision) Quality Inspection
3 Appearance Quality Inspection
4 Functional Quality Inspection
5 Structural Quality Inspection
6 Surface Treatment Quality Inspection
7 Packaging Quality Inspection