Indexable spiral cutting edge end mill<\/figcaption><\/figure>\n <\/p>\n
By tool material<\/h2>\n
End mills can be classified by material into: high-speed steel, solid carbide, carbide with coating, CNB, PCD, etc.<\/p>\n
\u00a0<\/b><\/strong><\/p>\nKey Points for Selecting End Mills<\/h1>\n
When using an end mill, multiple factors need to be considered to ensure machining efficiency, precision, and tool life. Here are some key considerations:<\/p>\n
\u2460 Material of the workpiece: Different materials (such as steel, cast iron, aluminum alloy, plastic, composite materials, etc.) require tools with different characteristics. For example, when machining aluminum alloy, a specialized aluminum end mill can be chosen, which typically has good chip evacuation and heat resistance; when machining high-hardness materials, a carbide tool with a high-wear-resistant coating should be selected.<\/p>\n
\u2461 Machining form and precision requirements: Choose the shape and number of cutting edges based on the shape of the machining surface (plane, slot, contour, etc.) and the required surface roughness. For instance, a ball nose end mill is suitable for complex surface machining, while a flat or rounded end mill is suitable for plane and edge machining. For high-precision machining, choose an end mill with higher arc precision.<\/p>\n
\u2462 Helix angle of the end mill: The helix angle affects cutting efficiency and tool life. When machining materials with poor thermal conductivity (such as stainless steel), a large helix angle can improve chip evacuation and heat dissipation, extending tool life. For thin-walled workpieces or machining with poor rigidity, a small helix angle can reduce cutting forces and avoid workpiece deformation.<\/p>\n