Gear machining refers to the manufacturing techniques used to create precisely shaped teeth on gears. Gears are toothed wheels that mesh together to transmit rotational motion and power between shafts in mechanical systems. The material is removed from a metal or plastic workpiece using various cutting processes to produce gears with the correct tooth profiles and spacing.

Common gear machining methods include hobbing, where a threaded tool progressively cuts the teeth; shaping, which uses a reciprocating tool; milling with a rotating cutter; and grinding to achieve a smooth final surface finish. These processes are often performed on computer-controlled (CNC) machines for high accuracy and efficiency. The choice of machining technique depends on the gear type, size, material, and required precision level.

• High precision and accuracy
• Ability to produce complex gear geometries
• Ability to produce various gear sizes and types
• Efficient and cost-effective for mass production
• Consistent and repeatable results
• Automated processes with CNC control
• Tight tolerances and minimal runout achievable
• Capability for hard machining of hardened gears
• Reduced manual labor and operator dependency
• Potential for high material removal rates and productivity

• Automotive transmissions
• Aerospace systems
• Industrial machinery
• Agricultural equipment
• Mining equipment
• Medical devices
• Semiconductor manufacturing
• Analytical instruments
• Photographic equipment
• Office equipment