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INSERT

A turning insert is a replaceable cutting component designed for high-precision material removal, typically made from materials such as tungsten carbide or CBN. It features a surface hardness exceeding 2500HV, offering excellent wear resistance. The rake angle ranges from 5 to 25 degrees, while the clearance angle is typically between 5 and 7 degrees. The insert geometry includes a cutting edge length of 12.7 mm, a thickness of 4.76 mm, and a nose radius between 0.2 and 1.2 mm. Coatings such as TiAlN or Al₂O₃ are applied to reduce friction and extend tool life up to 90 minutes of continuous machining. Each insert is precisely engineered according to ISO 1832 standards to ensure consistent performance under demanding machining conditions.

Turning inserts perform efficiently at cutting speeds up to 400 meters per minute and feed rates ranging from 0.05 to 0.5 mm. They withstand thermal loads up to 800°C without compromising performance. Positive or negative rake designs optimize chip flow and machining stability. These inserts are compatible with standard holders such as CNMG, DNMG, or SNMG, used for roughing or finishing operations. Each insert is identified by a specific code that defines its shape, thickness, tolerance, and angle according to international standards. Pro

INSERT

A turning insert is a replaceable cutting component designed for high-precision material removal, typically made from materials such as tungsten carbide or CBN. It features a surface hardness exceeding 2500HV, offering excellent wear resistance. The rake angle ranges from 5 to 25 degrees, while the clearance angle is typically between 5 and 7 degrees. The insert geometry includes a cutting edge length of 12.7 mm, a thickness of 4.76 mm, and a nose radius between 0.2 and 1.2 mm. Coatings such as TiAlN or Al₂O₃ are applied to reduce friction and extend tool life up to 90 minutes of continuous machining. Each insert is precisely engineered according to ISO 1832 standards to ensure consistent performance under demanding machining conditions.

Turning inserts perform efficiently at cutting speeds up to 400 meters per minute and feed rates ranging from 0.05 to 0.5 mm. They withstand thermal loads up to 800°C without compromising performance. Positive or negative rake designs optimize chip flow and machining stability. These inserts are compatible with standard holders such as CNMG, DNMG, or SNMG, used for roughing or finishing operations. Each insert is identified by a specific code that defines its shape, thickness, tolerance, and angle according to international standards. Pro

INSERT

A turning insert is a replaceable cutting component mounted on machining tools such as boring bars or turning holders. Inserts are typically made from tungsten carbide, ceramics, or CBN and have a high hardness rating up to 92 HRA. Their rake angle ranges from 5 to 25 degrees, depending on the operation type and workpiece material. Standard insert dimensions follow ANSI or ISO codes, such as a diameter of 12.7 mm and a thickness of 4.76 mm. The contact surface is often coated with materials like TiN or Al₂O₃, enhancing wear resistance by up to three times. The insert geometry includes rounded or angled corners with a nose radius between 0.2 and 1.2 mm, directly affecting the surface finish quality.

Turning inserts can operate at cutting speeds up to 400 meters per minute and are suitable for precision machining with feed rates between 0.05 and 0.5 mm. In industrial applications, they withstand temperatures up to 800°C without performance degradation. A clearance angle of 5 to 7 degrees reduces friction and extends tool life. Insert coding includes detailed specifications such as shape, angle, thickness, and dimensional tolerance according to ISO 1832 standards. Inserts are compatible with various holders like CNMG or TNMG, used for roughing or finishing operations. With p

Walter CNMG190612-RM5 Diamond Turning Insert

The Walter CNMG190612-RM5 diamond turning insert is a precision-engineered square insert designed for machining hardened steels, cast iron, and heat-resistant alloys. It features dimensions of 19.05 × 6.35 mm with a 1.2 mm nose radius and conforms to the CNMG ISO standard. Its negative rake angle and balanced thickness enable stable cutting under heavy load conditions. The carbide grade used in combination with AlTiN and TiCN multilayer coatings extends tool life by up to 30% compared to similar inserts. The RM5 geometry is optimized for medium to semi-rough turning and delivers effective chip control at high speeds. This insert performs reliably in both continuous and interrupted cutting operations.

The insert’s engineering is based on precision pressing technology and nano-layered coatings, which significantly enhance its mechanical and thermal resistance. The applied cutting geometry evenly distributes stress across the cutting edge, preventing premature cracking. Its optimized corner design improves final surface finish and reduces the need for secondary polishing. Each insert weighs approximately 14.8 grams, striking a balance between mass and rigidity. Compatibility with standard ISO toolholders enables fast tool changes and boosts productivity in manufacturing enviro

INSERT

A turning insert is a replaceable cutting tool made from materials such as tungsten carbide, CBN, or ceramics, with a surface hardness exceeding 2500HV. Inserts typically have a rake angle between 5 and 25 degrees and a clearance angle from 5 to 7 degrees, optimizing chip evacuation and reducing friction. Standard insert dimensions include a thickness of 4.76 mm, an edge length of 12.7 mm, and a nose radius ranging from 0.2 to 1.2 mm. Coatings like TiCN, AlTiN, or CVD are applied to enhance wear and heat resistance up to 800°C. These inserts are precisely engineered according to ISO 1832 standards and are compatible with toolholders using CNMG or SNMG systems.

Turning inserts can operate at cutting speeds up to 400 meters per minute and feed rates between 0.05 and 0.5 mm per revolution. These parameters improve production efficiency and reduce machining time. The insert geometry includes single- or double-sided cutting edges and accurate angles to control cutting forces and minimize vibration. Each insert is encoded with detailed information such as shape, thickness, rake angle, clearance angle, and dimensional tolerances. This coding enables fast identification and replacement in production lines. Proper use of cutting parameters and lubrication can extend the insert’s eff

Diamond turning insert TNMG220408-MS3

The technical specifications of the TNMG220408-MS3 diamond cutting insert feature high precision and notable wear resistance, designed for machining hard and semi-hard materials. This insert is made from synthetic diamond with a hardness exceeding 9500 Vickers and can withstand temperatures up to 800 degrees Celsius. Its dimensions include a cutting length of 22 millimeters, a thickness of 4 millimeters, and an 80-degree nose angle, which enhances cutting accuracy and reduces cutting forces. The TNMG220408-MS3’s geometric design minimizes vibrations and increases tool life by up to 30 percent. It supports high cutting speeds up to 150 meters per minute, making it highly suitable for aerospace and automotive industries.

The structure of this diamond cutting insert incorporates multi-layer coatings such as TiAlN, which improve resistance to oxidation and wear. The low friction coefficient of these coatings reduces chip adhesion and enhances surface finish quality. With a positive rake angle and optimized chip breakers, the TNMG220408-MS3 facilitates chip flow and decreases tool load. Weighing approximately 8 grams, it balances strength and lightness effectively. These features make the TNMG220408-MS3 an ideal choice for precision machining and mass production across various in

insert

Modern turning inserts are made from coated tungsten carbide with nanostructured layers. Al₂O₃ and TiCN layers with 5 to 15 micron thickness coat the core. This coating increases surface hardness up to 3200 Vickers. Insert geometry is defined for general purpose, roughing, and finishing applications. Standard square insert sizes range from 10 to 25 mm with thicknesses of 3 to 8 mm. The quick-change system uses lever or screw mechanisms with 15 to 40 Nm torque. This system enables tool changes in under 15 seconds. Inserts are optimized for cutting speeds of 200 to 400 m/min and depths of cut up to 6 mm.

The inserts geometric structure features a 7-degree positive rake and 55-degree lead angle to reduce cutting force. The polygonal design triangle, square, rhombus allows 6 to 8 cutting edges per insert. Special steel turning geometry includes micro-breakers for chip control. The quick-change system uses precision pins with 0.002 mm tolerance for repeatability. The system is built from hardened steel with 58 Rockwell C hardness. Modern inserts offer a tool life of 20 to 40 minutes under heavy cutting conditions. They are designed for turning stainless steel, alloy steel, and superalloys. CNC lathes and advanced turning centers are equipped with this system.

INSERT

A turning insert is made from materials such as tungsten carbide, ceramics, or CBN, with a surface hardness exceeding 2500HV. The standard thickness of inserts is typically 4.76 mm, and the cutting edge length is 12.7 mm. The rake angle ranges between 5 and 25 degrees, and the clearance angle is set between 5 and 7 degrees to balance cutting efficiency and wear reduction. The insert’s nose radius usually varies from 0.2 to 1.2 mm, improving the final surface quality. Coatings like TiAlN or Al₂O₃ are applied to enhance wear and heat resistance up to 800°C. These tools are designed and coded according to ISO 1832 standards.

Turning inserts can operate at cutting speeds up to 400 meters per minute and feed rates between 0.05 and 0.5 mm per revolution. These parameters increase productivity and reduce machining time. The insert geometry includes single- or double-sided cutting edges to control cutting forces and reduce vibration. Each insert has a specific code containing geometric shape, thickness, rake angle, and dimensional tolerances. These specifications enable quick identification and replacement in production lines. Proper use of cutting parameters and lubrication can extend tool life up to 90 minutes of continuous operation.

insert

Sandvik turning inserts are made from tungsten carbide with an advanced TiAlN coating that provides thermal resistance up to 1000 degrees Celsius. Typical dimensions include a thickness of 4.76 mm, cutting edge length between 8 to 12.7 mm, and nose radius ranging from 0.4 to 1.2 mm, which play a crucial role in precise chip removal and extended tool life. The positive rake angle varies between 7 to 20 degrees, and the clearance angle is 6 to 7 degrees, helping to reduce cutting forces and prevent vibration. Sandvik inserts are available in geometric types such as TNMG, CNMG, and TCGT, each optimized for different materials like steel, stainless steel, and aluminum.

Under operating conditions, Sandvik turning inserts can withstand cutting speeds from 250 to 700 meters per minute and feed rates from 0.1 to 0.4 millimeters per revolution, depending on the workpiece material. The nano-layer coating technology and optimized insert geometry increase machining accuracy and reduce tool failure. Precise manufacturing standards compliant with ISO 9001 ensure quality and quick insert replacement in tool holders. Proper use of coolant can extend tool life up to 150 minutes under heavy machining conditions.

CBN turning inserts

CBN turning inserts, made from cubic boron nitride, are used for machining very hard materials such as heat-treated alloy steels with hardness above 45 HRC. These inserts typically have a hardness of 4000 to 4500 Vickers and thermal resistance up to 1200°C. Their structure usually consists of a thin CBN layer about 0.5 to 1 millimeter thick over a carbide substrate. The cutting angle ranges between 5 to 7 degrees, and the nose radius is typically between 0.2 to 0.8 millimeters. Precise design enables maintaining high material removal rates at high speeds while minimizing tool wear.

CBN inserts perform optimally at cutting speeds above 200 meters per minute and are suitable for dry machining. They are used for precision tolerances of 0.01 millimeters in parts such as crankshafts, shafts, and bearings. Protective coatings like TiAlN or TiSiN improve chemical and wear resistance in some models. The tool life of CBN inserts can be up to five times longer than carbide inserts depending on process conditions. Common geometries include CNGA, DNGA, and SNGA, optimized for medium to heavy-duty applications. These tools maintain stable operation temperatures without coolant up to 1000°C.

Diamond turning insert TNMG160412-MP5

The TNMG160412-MP5 diamond cutting tool is a popular and widely used instrument in the machining industry, designed for precise and efficient material removal from various hardened steels, heat-resistant alloys, and non-ferrous metals. Made from industrial diamond with high hardness and a uniform crystalline structure, this tool features a specially designed tip and optimized cutting angle that help reduce cutting forces and improve surface finish quality. Its high resistance to wear and heat makes it highly suitable for high-speed machining operations and demanding working conditions.

Structurally, the Walter TNMG160412-MP5 is manufactured as replaceable inserts with advanced nano and ceramic coatings that play a significant role in reducing friction and enhancing tool durability. The edge thickness, precise tip geometry, and easy mounting capability on CNC machines make this diamond cutting tool an ideal choice for industries such as automotive, aerospace, and mold making. Adherence to strict technical and structural standards in the design and production of this tool ensures increased productivity, reduced manufacturing costs, and improved final part quality.

Turning inserts

Turning inserts are a key component in metal machining processes, playing a crucial role in cutting accuracy and quality. Standard dimensions typically include cutting edge lengths between 6 to 25 millimeters and thicknesses from 2 to 5 millimeters. The insert material is commonly tungsten carbide, ceramic, or CBN, each designed for specific applications. Common coatings include TiN, TiAlN, and Al2O3, which increase wear and heat resistance up to over 1000 degrees Celsius. The cutting edge geometry is selected based on the machining type, such as precision or rough turning, and can have positive or negative rake angles.

The mechanical strength of the turning insert depends on its base material and coating, with hardness usually ranging between 1500 to 2200 Vickers. High-quality inserts can withstand shear forces up to 3000 Newtons and operating temperatures above 900 degrees Celsius. Tool life typically ranges from 30 to 120 minutes at cutting speeds of 100 to 300 meters per minute. Manufacturing precision within micron levels and dimensional tolerances below 0.01 millimeters enhances workpiece surface quality and reduces secondary costs.

TURNING INSERT

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ZCC turning inserts are typically manufactured from tungsten carbide alloy with an approximate density of 14.5 g/cm³ and coatings such as PVD TiAlN or CVD TiCN. The insert thickness ranges between 3.18 to 6.35 mm and the nose radius varies from 0.4 to 1.2 mm. The positive rake angle is designed between 7 to 15 degrees to ensure smooth cutting and reduce vibration. ZCC inserts comply with ISO and DIN standards, allowing compatibility with various tool holders. The precise material composition enhances hardness up to approximately 92 HRA, contributing to stable performance at high cutting speeds.

The optimal cutting speed range for ZCC turning inserts on alloy steels is between 180 and 450 meters per minute. The typical feed rate is set between 0.1 and 0.35 mm/rev. Common geometries include CNMG, SNMG, and WNMG, designed with optimized angles for improved chip evacuation and reduced heat generation. Under proper cooling conditions, tool life can exceed 120 minutes. ZCC’s multilayer coating structure guarantees high resistance to wear and corrosion.

TNMG22 lathe insert

The TNMG22 turning insert designed for cast iron is made from tungsten carbide with a surface hardness above 2600HV. The cutting edge length is 12.7 mm and the thickness is 4.76 mm. A nose radius of 0.8 mm helps improve surface quality and chip control. The rake angle is 15 degrees and the clearance angle is 7 degrees, optimized for efficient cast iron machining. The TiAlN coating provides thermal resistance up to 900°C and increases tool life against wear. The insert is coded according to ISO 1832 standards and compatible with CNMG and DNMG tool holders.

This insert can operate at cutting speeds up to 320 meters per minute and feed rates between 0.1 and 0.35 mm per revolution, ideal for cast iron machining. Its double-sided geometry with wear-resistant edges reduces vibration and enhances machining stability. The coding includes geometric data, coating type, and dimensional tolerances, enabling quick identification and easy replacement. Proper use of cutting parameters and optimized lubrication can extend the insert’s effective life up to 85 minutes and improve the surface finish quality of the workpiece.

TNMG22 lathe insert for cast iron lathe

The TNMG22 turning insert designed for stainless steel machining is made from tungsten carbide with a surface hardness exceeding 2700HV. The cutting edge length is 12.7 mm, thickness 4.76 mm, and nose radius 0.8 mm, improving cutting quality and chip control in hard metals. The rake angle is 15 degrees and clearance angle 7 degrees, engineered to reduce cutting forces and extend tool life. The TiAlN coating increases wear and heat resistance up to 950°C. This TNMG22 insert is manufactured according to ISO 1832 standards and fully compatible with CNMG and DNMG tool holders.

The TNMG22 insert can withstand cutting speeds between 250 and 350 meters per minute and feed rates from 0.1 to 0.3 mm per revolution, ideal for stainless steel machining. Its double-sided geometry with wear-resistant edges reduces vibration and enhances machining stability. Precise coding includes geometric features, coating type, and dimensional tolerances, facilitating quick and accurate tool replacement. Optimized cutting parameters and proper lubrication increase the insert’s service life and improve the workpiece surface quality.