Types of CNC Milling Tools

HRC65 corner radius end mills are widely used in high-hardness tool steel machining due to their rounded edge design, which effectively distributes cutting forces and improves tool life and machining stability. Compared to traditional flat-bottom end mills, corner radius end mills reduce the risk of chipping while providing higher precision and better surface quality when […]

In mold and die manufacturing, the choice of cutting tools directly affects processing efficiency, cavity accuracy, and subsequent polishing costs. Among these tools, ball nose milling cutters have become indispensable due to their stable performance when machining complex curved surfaces and deep cavities. Whether working on plastic molds, die-casting molds, or precision stamping molds, there

In precision machining of hardened steel, tool performance directly impacts machining stability, surface finish, and overall production efficiency. When workpiece hardness reaches or exceeds HRC60, conventional tools often fail to meet the demands for long-term continuous machining in terms of wear resistance, edge strength, and thermal stability. This makes the HRC65 ball nose end mill

When selecting a tool supplier, the reliability of flat milling cutter manufacturers directly affects machining stability, cost control, and delivery assurance. Manufacturers differ significantly in raw material selection, production processes, quality management, and technical support. Without a systematic evaluation, issues such as inconsistent tool life, dimensional deviations, or poor batch consistency can occur in production.

In precision parts machining and mass production, the choice of tool geometry directly impacts edge quality, assembly reliability, and overall processing costs. Corner chamfer end mills and corner radius end mills are both commonly used for edge finishing. While they appear similar and serve related purposes, they differ significantly in cutting methods, processing outcomes, and

In the field of micro-part manufacturing, dimensional tolerances often directly determine assembly feasibility and functional reliability. When part features reach sub-millimeter or even micron levels, even minor processing fluctuations are magnified, and traditional machining methods gradually reveal limitations in dimensional consistency and repeatability. In this context, micro end milling has become an essential method for

In the precision manufacturing of aluminum alloy parts, surface finish directly affects assembly accuracy, service life, and overall quality stability. Even if the dimensions meet specifications, noticeable tool marks, scratches, or uneven cutting traces can increase subsequent finishing costs and affect production efficiency. Therefore, achieving consistent surface quality while maintaining processing efficiency has become a