The power Skiving (also known as scraping) is usually characterized by the following characteristics and advantages:

Features: Continuous Machining Process. Turning is a continuous cutting process that involves the tool intersecting with the workpiece axis (axial intersection angle), suitable for both soft and hard machining of internal and external gears. Multi-tool Cutting Strategy. By combining the rotational coupling of the workpiece and the tool with feed motion, the cutting edge creates relative motion within the gear groove, stripping material layer by layer (the 'peeling' principle), thus achieving efficient gear groove machining. High-Precision Synchronization Control. Modern CNC technology ensures spindle synchronization, which requires high rigidity and dynamic performance of the machine tool.

Advantages: Improve production efficiency. Rough and finish machining can be completed in a single setup, significantly reducing processing time. Compared to traditional hobbing or broaching, the continuous cutting mode of turning reduces interruptions and enhances processing speed. Reduce setup frequency. Turning and gear processing can be completed in a single setup, avoiding accuracy loss from multiple setups. Process complex geometries. It can handle internal gears, helical gears, splines, and other complex tooth profiles, offering broad adaptability. Cost-effectiveness. Save on equipment space and logistics costs. No special foundation is required (unlike a lathe), reducing total investment and maintenance costs. Process flexibility. Supports dry processing (no coolant needed), reducing environmental costs. Quickly switch between workpiece types, tooth profiles, or helix angles. Improve surface quality. Continuous cutting reduces the risk of thermal deformation, resulting in smoother surfaces and reduced friction and stress fatigue. Solve space limitations

Gears can be machined near the shoulder or interference profile.

Summary: The gear cutting process, with its unique continuous cutting mechanism and shaft intersection angle design, significantly outperforms traditional gear processing methods (such as hobbing and broaching) in terms of efficiency, precision, and flexibility. It is particularly suitable for complex tooth profiles and mass production scenarios. Its core advantages include integrating multiple processes, reducing clamping errors, and lowering overall manufacturing costs.