Brand Name: | AMG |
Model Number: | Standard/Customized |
MOQ: | 3 |
Price: | Request Quote |
Attribute | Value |
---|---|
Name | HF25 Carbide Taper End Mill |
Type | Customized |
Coating | TiAIN, DLC/ZrN/AlTiN /AlCrN Super Finish Coating |
Suitable for | Copper, stainless steel, glass, high hardness workpieces, semi-finishing and roughing, aluminum |
Flute | 4 Flutes |
AMG's R4.5*4°-D16-110-4T carbide taper end mill is specifically engineered for precision slope and curved surface machining on automation equipment parts. Made with HF25 ultra-fine grain carbide substrate, this tool offers outstanding wear resistance and anti-chipping performance, maintaining stability even under high-load machining conditions.
Featuring a 4° taper design and an R4.5 ball nose transition, with a 16mm cutting diameter, 110mm total length, and 4 evenly distributed flutes, it ensures balanced cutting forces, reduced vibration, smooth chip evacuation, and a high-quality surface finish. It is particularly suitable for mold slope finishing, deep cavity taper machining, and high-precision curved surface milling in automated equipment parts.
Widely used for slope, curved surface, and deep cavity taper machining on automation equipment components, molds, medical parts, and automotive parts. It is ideal for materials including steel, cast iron, stainless steel, aluminum alloys, and titanium alloys, making it an excellent choice for precision mold making and automation structural components.
Model | Radius R (mm) | Taper (°) | Cutting Dia. D (mm) | Total Length L (mm) | Flutes |
---|---|---|---|---|---|
AMG-R4.5-4D16-110-4T | 4.5 | 4° | 16 | 110 | 4 |
This taper end mill utilizes a 4° taper to provide greater chip evacuation space and reduce interference risks during deep cavity and curved surface machining, enhancing machining efficiency. The R4.5 ball nose reduces cutting impact and prevents visible tool marks on the workpiece, improving surface finish. The 4-flute design ensures even force distribution during slope and curved surface cutting, allowing for high-speed, high-feed machining while maintaining stability.