Long Tool Life Carbide Tool Inserts SNMX120612-MM Good Performace On Cast Iron

Long Tool Life SNMX120612-MM Carbide Milling Inserts with Good Performace on Cast Iron

Description:

Solid carbide provides better rigidity than high speed steel. It is extremely heat resistant and used for high speed applications on 45steel, cast iron, nonferrous materials, plastics and other tough-to-machine materials.

• Solid carbide tools offer long tool life and faster cutting speeds than other substrates, but are more brittle and must be used with rigid toolholding systems
• Multi Layer coating TiC/Al2O3/TiN
• Good toughness, high strength in use and versatility for roughing, medium roughing of steel, alloy steel and cast-iron, especially for high speed and quick cutting
• Use for slotting and slab or straddle milling

1. 100% virgin raw material of powder for each insert to ensure you top and stable quality.

2. High technical production line to ensure delivery on time.

3. More than10,000 sets of of molds with various of types, sizes, chipbreakers and coating for customer to choice to meet customers requirements. Also we accept special design to open new mould according to customers drawings and samples.

4. Different packages :different color /brand/size of inner plastic box and outside wooden box .

5. 24 hours on line for sales and after sales service and in time technology supports.

Application:

The combination fo thick coating and substate with good hardness and impact resistance gives the inserts excellent impact resistance and stablity under high remperature, and improves wear resistance of inserts. Inserts also satisfied the requirements of high speed and high feed rate when machining cast iron.

The shape of an insert has a major influence on the impact resistance of the carbide. The weakest section of a milling insert is the corner, which is exposed to constant interrupted cuts and extreme heat changes. Since a round insert has no corners, it is more secure than any other shape.

Consider the tremendous forces that are placed on a milling insert in a typical cut. As the insert enters the cut, it is subjected to a large compressive load. The initial contact between the cutting edge and the workpiece may be very unfavorable depending on the position of the cutter in relation to the workpiece.

As the insert moves through the cut, the chip thickness is constantly changing, varying the radial and axial cutting forces. Finally, as the insert leaves the workpiece, it is subjected to tensile stresses that break down the carbide. The chip bending away from the insert places large tensile or "ripping" stress on the face of the carbide.

Specification: