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Carbide Cutting Inserts are widely used in various cutting and machining applications due to their hardness and durability. To enhance their performance and extend their lifespan, carbide Cutting Tungsten Carbide Inserts Inserts are often coated with different types of coatings. These coatings provide protection against wear, improve cutting performance, and reduce friction during the cutting process. There are several common types of coatings used for carbide Cutting Inserts:

1. Titanium Nitride (TiN) Coating: TiN coating is one of the most common coatings used for carbide Cutting Inserts. It is a thin film coating that provides good wear resistance and enhances the toughness of the carbide material. TiN coating is typically golden-yellow in color and is suitable for a wide range of cutting applications.

2. Titanium Carbonitride (TiCN) Coating: TiCN coating is a popular choice for carbide Cutting Inserts that are used in high-speed machining applications. It offers improved wear resistance, increased hardness, and better adhesion to the carbide substrate. TiCN coating is typically dark grey in color and provides excellent performance in cutting abrasive materials.

3. Aluminum Titanium Nitride (AlTiN) Coating: AlTiN coating is a versatile coating that offers excellent wear resistance, high hardness, and increased thermal stability. It is commonly used for carbide Cutting Inserts in aerospace, automotive, and medical industries. AlTiN coating is typically black or dark grey in color and provides superior performance in high-temperature cutting applications.

4. Diamond-like Carbon (DLC) Coating: DLC coating is a unique coating that provides exceptional hardness, low friction, and high wear resistance. It is suitable for carbide Cutting Inserts used in high-speed machining and dry cutting applications. DLC coating is typically black in color and offers superior performance in cutting hard and abrasive materials.

5. Chromium Nitride (CrN) Coating: CrN coating is known for its excellent wear resistance, low coefficient of friction, and high oxidation resistance. It is commonly used for carbide Cutting Inserts in metal cutting and milling applications. CrN coating is typically silver or grey in color and helps to improve cutting performance and tool life.

Overall, the choice of coating for carbide Cutting Inserts depends on the specific cutting application, material being cut, and desired performance characteristics. Each type of coating offers unique benefits and advantages, and selecting the right coating can significantly impact the efficiency and productivity of machining operations.

【introduction】The construction of flexible electronic devices with certain functions and structures provides a variety of possibilities for human life in the future, such as wearable electronic products, implantable chips, sensing skin, flexible robots, and so on. With the deepening of the research on luminescent materials, these creative products are moving from the laboratory to people’s lives. For example, a clothing containing a light-emitting element, a detector built by an optical signal, a chip capable of releasing a drug through an optical signal, a chip that participates in a signal transmission, and the like. Early research, mainly using screen printing technology, to achieve a large-scale manufacturing of AC flexible luminescent materials. Nowadays, with the advent of 3D printing technology, flexible materials with more complex structures are also produced.The researchers have designed a novel structure of light-emitting devices, which are mainly composed of four parts, namely, a pair of parallel stack or side by side distribution of the electrode, light-emitting layer, dielectric layer and a controllable electrode layer. The control of the electrode layer is achieved by selecting a different polarizing material or an electroconductive tungsten carbide inserts thin film. This new structure is not only simple, but also conducive to large-scale manufacturing, more importantly, compared with the traditional sense of the light-emitting devices, a pair of opposing electrodes are no longer stacked with each other, but side by side distribution. It is because of this structural advantage, the researchers have designed different types of devices. For example, this flexible material is mounted on an umbrella, and when the water falls on an umbrella, the umbrella glows, which also makes it possible to build a remote detector that utilizes optical signal changes.Figure 1. Comparison of conventional sandwich configurations of light emitting devices (denoted as S-ELS) and polarized electrode bridge light emitting devices (denoted PEB-ELS)a) Schematic diagram of the structure of a conventional sandwich device (S-ELS)b) Schematic diagram of Tungsten Steel Inserts polarization electrode bridge light emitting device (PEB-ELS)c) Flexible display of PEB-ELS;d) The backside of the PEB-ELS is enlarged with an electrode width of 0.45 mm and a pitch of 0.40 mm.e) the water shines on the PEB-ELS;f) Comparison of changes in AC voltage before and after water dumping.Figure 2. Effect of bridging material, voltage and frequency on PEB-ELS performancea) PEB-ELS positive partial magnification, electrode width of 1.5 mm, spacing of 0.4 mm;b) the addition of different bridging liquid, the light in the dark situation;c) the relationship between the luminous intensity and the type and concentration of the bridged liquid at a voltage frequency of 2 kHz;d) the effect of substrate impedance on the luminous intensity, insert the picture shows the relationship between liquid contact time and luminous intensity;e) the relationship between the luminous intensity and the voltage frequency when the voltage is constant;f) Draw a Picasso painting on PEB-ELS with a pencil.Figure 3. Polarized electrode bridge experiment.a-b) bridging the experimental diagram, the first PEB-ELS is divided into two parts, and then use the hydrogel as a polarized bridge, the two parts connected to test;c) half of the PEB-ELS infiltrated in the two beakers;d) Transparent polyacrylamide hydrogel for bridging, 5 cm long, 1.6 cm wide, 0.3 cm thick;e) After the two beakers are connected with a hydrogel, the voltage is applied and the PEB-ELS emits light;f) Place the hydrogel directly on PEB-ELS and the material glows.Figure 4. Preparation and performance testing of rainwater sensorsa-b) rainwater sensor preparation diagram;c-d) rainwater sensor of the physical map, white and dark;e) hand as bridge electrode, PEB-ELS light;f) When the water is frozen, the emission intensity of PEB-ELS is weakened.【summary】This study presents a new, low-cost, flexible, light-emitting device that can be mass-produced. In this paper, the luminescence performance of the device is studied, and the relationship between the luminescence performance and the bridging material and the applied voltage is discussed. And then made it based on the optical signal sensor. When the umbrella is wet or touched by hand, the contact surface will light. Not only that, this new type of light emitting device can also be used to write, when writing with a pencil, the corresponding area can also light. This also provides a new possibility for the future development of touch display technology.
Source: Meeyou Carbide


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