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Learn Cutting Tool Manufacturing before starting Your Cutting Tool Company

cutting tool

Have you always dreamt of starting a cutting tool company

If yes, the first question is, do you know anything about grinding tools? 

Cutting and grinding tools are like the heart and soul of the cutting tool company that helps the company in executing a lot of functions that could not be done otherwise. When it comes to starting a cutting tool company, you must be familiar with these two kinds of tools. Therefore, to make you familiar with tools to be used in the cutting tool company, we will discuss the manufacturing process of cutting tools in this blog. Because you must be well versed with every tool you are going to use in your company and you never know when you might make up your mind to manufacture your own cutting tool. So, let’s get started. 

Learn Cutting Tool Manufacturing

To begin with, a cutting device is any tool used to remove any material from a work part by shear deformation. Single-point or multi-point methods can be used for cutting. Single-point devices are used for spinning, forming, preparation, and related operations and with cutting drawing material. The tools used for milling and drilling are usually multipoint devices. It is the body on which the teeth or edges are cut off. Abrasive tools are also multipoint devices. The abrasive grain of the can acts as a single-point microscopic cutting edge and cuts a small coin. 

However, metal cutting materials must be harder than sliced steel and the equipment must be able to withstand the heat and force generated during the metal cutting process. The tool, therefore, needs to have a precise configuration with the created rake angles so that the cutting edge can touch the workpiece without the rest of the device pulling on the workpiece surface. For long life, it is important to automate all of the above, including the speeds and feeds at which the machine is used. 

Tungsten carbide, also simply called “carbide”, is a material commonly available on the market that you must know. 

Many tungsten ores can be mined and processed into tungsten or tungsten carbide. The ore is cut, burned, and chemically treated. Instead, they carbonize small pieces of tungsten oxide to obtain tungsten carbide. In one step, tungsten oxide is mixed with graphite. Right now, Tungsten might not gather your attention but it is the core of this whole process. 


Particulate tungsten carbide is the ratio of rice grain thickness. It can probably range in scale from half a micron to 10 microns in width. At this stage, the tungsten carbide is ready to be mixed into the sorted powder. In the tungsten carbide sector, they talk about grades rather than alloys, but they say the same thing. 

Tungsten carbide falls into a bonding vessel with certain categories of materials. Cobalt metal powder acts as an adhesive to the fabric intact. Add other materials such as titanium carbide, tantalum carbide, and niobium carbide to enhance the object’s slicing properties. After mixing is complete, the solvent must be drained. 


After tightening, the structure looks larger than conventional joints and is really fine. They are removed from the molds and placed on a graphite or molybdenum plate and combined in a sintering heater, where they are heated to 1100-1300 C in low-pressure hydrogen-air. After the accessories are pushed out of the heater and cooled, they are thick and hard. 


Different styles and coatings have been produced to extend tool life under difficult cutting conditions. These can be applied in two ways: chemical deposition or physical deposition

Chemical Vapor Deposition 

The surface for chemical vapor deposition of CVD is typically 5-20 microns thick. Milling and drilling inserts typically gain 5-8 microns because these operations require a better finish, so they have more impact and provide greater edge toughness. 

Physical vapor deposition 

In general, PVD coatings are about 2-4 microns wide. Some manufacturers hire different level numbers. These PVD coatings are well designed for applications in cutting high-temperature materials, nickel, cobalt, or titanium, as well as products related to steel and stainless steel. 


Thus, equipment manufacturers are addressing ever-increasing feed and speed requirements and the need for longer machine life and lower costs by continually improving the design of tungsten Solid Carbide cutting tool equipment and creating ever-improving coating technologies.

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