How to Configure Cutting Parameters for High Temperature Alloys

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How to Configure Cutting Parameters for High Temperature Alloys

High temperature alloys, due to their excellent high temperature resistance, corrosion resistance, and high strength, play a key role in high-tech fields such as aerospace, energy, and the chemical industry. However, cutting high-temperature alloys is not easy. Due to their hardness and heat resistance, they cause severe wear on cutting tools and are difficult to process.

Cutting Nickel-based High Temperature Alloys

Cutting Inconel 600

When cutting Inconel 600, it is recommended to use carbide, ceramic or PCBN tools, preferably with TiAlN or TiSiN coatings to improve heat resistance and wear resistance. In terms of geometry, pay attention to using a large positive rake angle (12-20 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to balance tool strength and reduce friction, and maintain a small cutting edge radius (0.02-0.1 mm) to prevent cutting tool chipping.

Roughing Inconel 600

Cutting speed: 20-40 meters per minute (m/min)
Feed rate: 0.2-0.4 millimeters per revolution (mm/rev)
Deepness of cut: 2-6 millimeters (mm)

Semi Finishing Inconel 600

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Inconel 600

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Inconel 625

When cutting Inconel 625, it is recommended to use carbide, ceramic or PCBN tools, preferably with TiAlN or TiCN coatings to enhance wear and heat resistance. In terms of geometry, pay attention to using a large positive rake angle (10-20 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.03-0.1 mm) to prevent tool chipping.

Roughing Inconel 625

Cutting speed: 15-35m/min
Feed rate: 0.2-0.5mm/rev
Depth of cut: 2-5mm

Semi Finishing Inconel 625

Cutting speed: 25-45m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Inconel 625

Cutting speed: 35-55m/min
Feed rate: 0.05-0.15mm/rev
Depth of cut: 0.2-1 mm

Cutting Inconel 718

When cutting Inconel 718, it is recommended to use carbide, ceramic or PCBN tools, preferably with high-temperature resistant coatings such as TiAlN or AlTiN. In terms of geometry, pay attention to using a large positive rake angle (12-20 degrees) to reduce cutting forces, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.02-0.1 mm) to prevent the cutting tool from chipping.

Roughing Inconel 718

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Depth of cut: 2-6 mm

Semi Finishing Inconel 718

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Inconel 718

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Hastelloy X

When cutting Hastelloy X, it is recommended to use carbide or ceramic milling cutters, preferably with TiAlN or TiCN coatings to improve heat and wear resistance. In terms of geometry, pay attention to using a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.03-0.1 mm) to prevent the cutting tool from chipping.

Roughing Hastelloy X

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.5 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Hastelloy X

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Hastelloy X

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.15 mm/rev
Depth of cut: 0.2-1 mm

Cutting Hastelloy C276

When cutting Hastelloy C276, it is recommended to use a carbide or ceramic end mill cutter, preferably with a TiAlN or TiCN coating to enhance wear resistance and oxidation resistance. In terms of geometry, pay attention to using a large positive rake angle (10-15 degrees) to reduce cutting forces and heat, a moderate back angle (8-12 degrees) to reduce tool-workpiece friction, and maintain a small cutting edge radius (0.03-0.1 mm) to prevent tool chipping.

Roughing Hastelloy C276

Cutting speed: 10-25 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-4 mm

Semi Finishing Hastelloy C276

Cutting speed: 20-35 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-2 mm

Finishing Hastelloy C276

Cutting speed: 30-45 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Rene 41

When cutting Rene 41, it is recommended to use carbide, ceramic or PCBN end mills, preferably with high temperature resistant coatings such as TiAlN or AlTiN to improve the wear resistance and cutting performance of the tool. In terms of geometry, pay attention to using a large positive rake angle (12-20 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to reduce friction, and maintaining a small cutting edge radius (0.02-0.1 mm) to prevent tool chipping.

Roughing Rene 41

Cutting speed: 15-35 m/min
Feed rate: 0.2-0.4 mm/rev
Depth of cut: 2-5 mm

Semi Finishing Rene 41

Cutting speed: 25-45 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Rene 41

Cutting speed: 35-55 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Nimonic 80A

When cutting Nimonic 80A, it is recommended to use carbide or ceramic tools, preferably with high temperature resistant coatings such as TiAlN or AlTiN, to enhance the wear resistance and heat resistance of the tool. In terms of geometry, pay attention to using a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.03-0.1 mm) to prevent the cutting tool from chipping.

Roughing Nimonic 80A

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Nimonic 80A

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Nimonic 80A

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Nimonic 90

When cutting Nimonic 90, it is recommended to use carbide, ceramic or PCBN tools, preferably with heat-resistant coatings such as TiAlN or TiCN, to improve the cutting performance and life of the tool. In terms of geometry, pay attention to using a large positive rake angle (12-20 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.02-0.1 mm) to prevent chipping of the machining tool.

Roughing Nimonic 90

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Depth of cut: 2-6 mm

Semi Finishing Nimonic 90

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Nimonic 90

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Vaspaloi

When cutting Vaspaloi, it is recommended to use carbide or PCBN machining tools with high heat-resistant coatings such as TiAlN or AlTiN to improve the heat resistance and wear resistance of the tool. In terms of geometry, pay attention to using a large positive rake angle (10-15 degrees) to reduce cutting forces, a moderate back angle (8-12 degrees) to reduce friction, and maintain a small cutting edge radius (0.03-0.1 mm) to prevent tool chipping.

Roughing Vaspaloi

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Vaspaloi

Cutting speed: 25-45 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Vaspaloi

Cutting speed: 35-55 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Cutting Alloy 718Plus

When cutting alloy 718Plus, it is recommended to use carbide, ceramic, or PCBN tools, preferably with high-temperature resistant coatings such as TiAlN or AlTiN to improve tool wear resistance and cutting performance. In terms of geometry, pay attention to using a large positive rake angle (12-20 degrees) to reduce cutting forces and temperatures, a moderate back angle (8-12 degrees) to minimize friction, and maintaining a small cutting edge radius (0.02-0.1 mm) to prevent tangent tool chipping.

Roughing Alloy 718Plus

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Depth of cut: 2-6 mm

Semi Finishing Alloy 718Plus

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Alloy 718Plus

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Machining Iron-based High-temperature Alloys

Processing A-286 Alloy

When cutting A-286 alloy, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to enhance heat resistance and wear resistance. In terms of geometry, pay attention to using a moderate positive rake angle (10-15 degrees) to reduce cutting forces and heat, the back angle should be maintained at 8-12 degrees to reduce friction between the tool and the workpiece, and the cutting edge radius is 0.03-0.1 mm to prevent chipping.

Roughing A-286 Alloy

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.5 mm/rev
Cutting depth: 2-5 mm

Semi Finishing A-286 Alloy

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing A-286 Alloy

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Incoloy 800

When cutting Incoloy 800, it is recommended to use carbide or PCBN tools with high temperature resistant coatings such as TiAlN or AlTiN to improve wear resistance and heat resistance. The geometry should adopt a large positive rake angle (12-20 degrees) to reduce cutting force and heat generation, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.02-0.1 mm to prevent tool chipping.

Roughing Incoloy 800

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Incoloy 800

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Incoloy 800

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Incoloy 825

When cutting Incoloy 825, it is recommended to use carbide or ceramic tools, and the coating is preferably TiAlN or TiCN to enhance heat resistance and wear resistance. The geometry should adopt a moderate positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Incoloy 825

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Incoloy 825

Cutting speed: 25-45 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Incoloy 825

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Incoloy 901

When cutting Incoloy 901, it is recommended to use carbide or PCBN tools, preferably with TiAlN or AlTiN coating to improve tool wear resistance and cutting life. In terms of geometry, a large positive rake angle (12-20 degrees) should be used to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.02-0.1 mm to prevent tool chipping.

Roughing Incoloy 901

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Incoloy 901

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Incoloy 901

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Nitronik 60

When cutting Nitronik 60, it is recommended to use carbide or ceramic tools with TiAlN or TiCN coatings to enhance heat and wear resistance. The geometry should adopt a moderate positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, maintain a clearance angle of 8-12 degrees to reduce friction, and a cutting edge radius of 0.03-0.1 mm to prevent tool chipping.

Roughing Nitronik 60

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Nitronik 60

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Nitronik 60

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Fe-Ni-Co Alloy

When cutting Fe-Ni-Co alloys, it is recommended to use carbide or ceramic tools with TiAlN or TiCN coatings to enhance wear resistance and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Fe-Ni-Co Alloys

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Fe-Ni-Co Alloys

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Fe-Ni-Co Alloys

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Hyperco 50

When cutting high permeability 50, it is recommended to use carbide or PCBN tools with TiAlN or AlTiN coating to improve the wear resistance and heat resistance of the tool. In terms of geometry, a larger positive rake angle (12-20 degrees) should be used to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.02-0.1 mm to prevent tool chipping.

Roughing Hyperco 50

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Hyperco 50

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Hyperco 50

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Hyperco 27

When cutting high permeability 27, it is recommended to use carbide or ceramic tools with TiAlN or TiCN coating to enhance heat resistance and wear resistance. The geometry should adopt a moderate positive rake angle (10-15 degrees) to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Hyperco 27

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Hyperco 27

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Hyperco 27

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Pyromet 860

When cutting high temperature alloy 860, it is recommended to use carbide or PCBN tools with TiAlN or AlTiN coating to improve the wear resistance and heat resistance of the tool. The geometry should adopt a large positive rake angle (12-20 degrees) to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.02-0.1 mm to prevent tool chipping.

Roughing Pyromet 860

Cutting speed: 20-35 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Pyromet 860

Cutting speed: 30-50 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Pyromet 860

Cutting speed: 40-60 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Processing Pyromet CTX-1

When cutting the high temperature alloy CTX-1, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coating to enhance wear resistance and heat resistance. The geometry should adopt a large positive rake angle (10-15 degrees) to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Pyromet CTX-1

Cutting speed: 15-30 m/min
Feed rate: 0.2-0.4 mm/rev
Cutting depth: 2-5 mm

Semi Finishing Pyromet CTX-1

Cutting speed: 25-40 m/min
Feed rate: 0.1-0.3 mm/rev
Cutting depth: 1-3 mm

Finishing Pyromet CTX-1

Cutting speed: 35-50 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.2-1 mm

Machining Cobalt-Based High Temperature Alloys

Processing Stellite 6

When cutting Stellite 6, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to enhance wear and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Stellite 6

Cutting speed: 10-20 m/min
Feed rate: 0.15-0.3 mm/rev
Depth of cut: 2-4 mm

Semi Finishing Stellite 6

Cutting speed: 15-25 m/min
Feed rate: 0.1-0.25 mm/rev
Depth of cut: 1-2 mm

Finishing Stellite 6

Cutting speed: 20-30 m/min
Feed rate: 0.05-0.1 mm/rev
Cutting depth: 0.1-1 mm

Processing Stellite 21

When cutting Stellite 21, it is recommended to use carbide or ceramic tools with TiAlN or TiCN coatings to enhance wear and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Stellites 21

Cutting speed: 10-20 m/min
Feed rate: 0.15-0.3 mm/rev
Depth of cut: 2-4 mm

Semi Finishing Stellites 21

Cutting speed: 15-25 m/min
Feed rate: 0.1-0.25 mm/rev
Depth of cut: 1-2 mm

Finishing Stellites 21

Cutting speed: 20-30 m/min
Feed rate: 0.05-0.1 mm/rev
Cutting depth: 0.1-1 mm

Processing Altimet

When cutting Altimet, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to improve wear resistance and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Altimet

Cutting speed: 10-20 m/min
Feed rate: 0.15-0.3 mm/rev
Depth of cut: 2-4 mm

Semi Finishing Altimet

Cutting speed: 15-25 m/min
Feed rate: 0.1-0.25 mm/rev
Depth of cut: 1-2 mm

Finishing Altimet

Cutting speed: 20-30 m/min
Feed rate: 0.05-0.1 mm/rev
Cutting depth: 0.1-1 mm

Processing Haynes 25

When cutting Haynes 25, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to enhance wear and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, keep the back angle at 8-12 degrees to reduce friction, and the cutting edge radius is 0.03-0.1 mm to prevent tool chipping.

Roughing Haynes 25

Cutting speed: 10-20 m/min
Feed rate: 0.15-0.3 mm/rev
Depth of cut: 2-4 mm

Semi Finishing Haynes 25

Cutting speed: 15-25 m/min
Feed rate: 0.1-0.25 mm/rev
Depth of cut: 1-2 mm

Finishing Haynes 25

Cutting speed: 20-30 m/min
Feed rate: 0.05-0.1 mm/rev
Cutting depth: 0.1-1 mm

Processing Haynes 188

When cutting Haynes 188, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coating to improve the wear resistance and heat resistance of the tool. In terms of geometry, a large positive rake angle (10-15 degrees) should be used to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing Haynes 188

Cutting speed: 10-20 m/min
Feed rate: 0.15-0.3 mm/rev
Depth of cut: 2-4 mm

Semi Finishing Haynes 188

Cutting speed: 15-25 m/min
Feed rate: 0.1-0.25 mm/rev
Depth of cut: 1-2 mm

Finishing Haynes 188

Cutting speed: 20-30 m/min
Feed rate: 0.05-0.1 mm/rev
Cutting depth: 0.1-1 mm

Processing MP35N Alloy

When cutting MP35N alloy, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to enhance wear resistance and heat resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and heat, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing MP35N Alloy

Cutting speed: 10-25 m/min
Feed rate: 0.15-0.3 mm/rev
Cutting depth: 2-4 mm

Semi Finishing MP35N Alloy

Cutting speed: 20-30 m/min
Feed rate: 0.1-0.25 mm/rev
Cutting depth: 1-2 mm

Finishing MP35N Alloy

Cutting speed: 25-35 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.1-1 mm

Processing L-605 Alloy

When cutting L-605 alloy, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coatings to enhance heat resistance and wear resistance. The geometry should use a large positive rake angle (10-15 degrees) to reduce cutting forces and temperatures, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.

Roughing L-605 Alloy

Cutting speed: 10-25 m/min
Feed rate: 0.15-0.3 mm/rev
Cutting depth: 2-4 mm

Semi Finishing L-605 Alloy

Cutting speed: 20-30 m/min
Feed rate: 0.1-0.25 mm/rev
Cutting depth: 1-2 mm

Finishing L-605 Alloy

Cutting speed: 25-35 m/min
Feed rate: 0.05-0.1 mm/rev
Depth of cut: 0.1-1 mm

Processing T-400 Alloy

When cutting T-400 alloy, it is recommended to use carbide or ceramic tools with TiAlN or AlTiN coating to improve the wear resistance and heat resistance of the tool. The geometry should adopt a large positive rake angle (10-15 degrees) to reduce cutting force and temperature, the back angle should be kept at 8-12 degrees to reduce friction, and the cutting edge radius should be 0.03-0.1 mm to prevent tool chipping.