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TNMG16 turning inserts are standard triangular negative rake inserts available with multiple nose radii, chipbreakers and coating grades to match diverse workpiece materials and cutting requirements. They support full-range turning processes including roughing, semi-finishing and finishing for carbon steel, alloy steel, stainless steel, cast iron and non-ferrous metals. Equipped with customized MS/TM/TF chip geometries and wear-resistant CVD/PVD coatings, they deliver stable cutting performance, reliable chip control and extended tool life, widely applied in general CNC turning for various demanding machining projects.
TNMG1604004L-S inserts adopt standard triangular structure with 0.4mm nose radius, designed for stainless steel turning based on diverse cutting conditions and workpiece materials. They support multiple machining types including semi-finishing and finishing of 304, 316 and other stainless steel materials. The MS special chipbreaker delivers excellent cutting performance and outstanding anti-buildup property, extending long tool life, making them a popular choice for demanding stainless steel threading & turning applications.
TNMG160404-MS inserts adopt standard triangular structure with 0.4mm nose radius, designed for stainless steel turning based on diverse cutting conditions and workpiece materials. They support multiple machining types including semi-finishing and finishing of 304, 316 and other stainless steel materials. The MS special chipbreaker delivers excellent cutting performance and outstanding anti-buildup property, extending long tool life, making them a popular choice for demanding stainless steel threading & turning applications.
TNMG160408-TM carbide turning inserts feature a 0.8mm nose radius and TM chipbreaker, designed for metric steel turning. Suitable for carbon & alloy steel roughing to semi-finishing, they provide stable cutting performance and extended service life, ideal for general-purpose turning demands.
These inserts employ an indexable design, typically in regular polygonal shapes with multiple pre-ground cutting edges. Once one cutting edge becomes worn, the operator can quickly index it to a fresh edge or replace the insert, minimizing machine downtime and enabling efficient, economical, and consistent continuous production. Their geometry, chipbreaker pattern, edge preparation, and grade are all precisely engineered to match specific workpiece materials (e.g., steel, stainless steel, cast iron, non-ferrous metals, or superalloys) and operations (roughing, finishing), meeting the stringent demands for high precision, productivity, and automation in modern CNC turning.
These inserts employ an indexable design, typically in regular polygonal shapes with multiple pre-ground cutting edges. Once one cutting edge becomes worn, the operator can quickly index it to a fresh edge or replace the insert, minimizing machine downtime and enabling efficient, economical, and consistent continuous production. Their geometry, chipbreaker pattern, edge preparation, and grade are all precisely engineered to match specific workpiece materials (e.g., steel, stainless steel, cast iron, non-ferrous metals, or superalloys) and operations (roughing, finishing), meeting the stringent demands for high precision, productivity, and automation in modern CNC turning.
These inserts employ an indexable design, typically in regular polygonal shapes with multiple pre-ground cutting edges. Once one cutting edge becomes worn, the operator can quickly index it to a fresh edge or replace the insert, minimizing machine downtime and enabling efficient, economical, and consistent continuous production. Their geometry, chipbreaker pattern, edge preparation, and grade are all precisely engineered to match specific workpiece materials (e.g., steel, stainless steel, cast iron, non-ferrous metals, or superalloys) and operations (roughing, finishing), meeting the stringent demands for high precision, productivity, and automation in modern CNC turning.
These inserts employ an indexable design, typically in regular polygonal shapes with multiple pre-ground cutting edges. Once one cutting edge becomes worn, the operator can quickly index it to a fresh edge or replace the insert, minimizing machine downtime and enabling efficient, economical, and consistent continuous production. Their geometry, chipbreaker pattern, edge preparation, and grade are all precisely engineered to match specific workpiece materials (e.g., steel, stainless steel, cast iron, non-ferrous metals, or superalloys) and operations (roughing, finishing), meeting the stringent demands for high precision, productivity, and automation in modern CNC turning.
These inserts employ an indexable design, typically in regular polygonal shapes with multiple pre-ground cutting edges. Once one cutting edge becomes worn, the operator can quickly index it to a fresh edge or replace the insert, minimizing machine downtime and enabling efficient, economical, and consistent continuous production. Their geometry, chipbreaker pattern, edge preparation, and grade are all precisely engineered to match specific workpiece materials (e.g., steel, stainless steel, cast iron, non-ferrous metals, or superalloys) and operations (roughing, finishing), meeting the stringent demands for high precision, productivity, and automation in modern CNC turning.
