Custom Carbide-Tipped Cutting Tools
Aoshiji® designs and manufactures custom carbide-tipped cutting tools for turning, drilling, reaming, milling, counterboring and complex profile machining.
These tools are also commonly referred to as brazed carbide tools because carbide tips, blades, or bars are brazed to an engineered steel tool body.
These tools are intended for manufacturing engineers, OEMs, machine shops and tooling distributors that need non-standard geometries, tight tolerances, special machine interfaces or combined operations that off-the-shelf tools cannot reliably meet. The objective is to achieve the required machining result while controlling carbide usage, tool changes and total tooling cost.
Table of Contents
01 Carbide-Tipped Tools for Precision Machining
02 What Are Carbide-Tipped and Brazed Carbide Cutting Tools?
03 Types of Custom Carbide-Tipped Cutting Tools
04 Why Choose Brazed Carbide Cutting Tools?
05 Precision Machining Applications and Workpiece Materials
07 Carbide Grade and Tool Body Material Selection
08 Carbide-Tipped vs Solid Carbide vs High Speed Steel (HSS) vs Indexable Tools
09 Custom Tool Requirements for Quotation
10 Aoshiji® Engineering, Manufacturing and Inspection Capabilities
01 Carbide-Tipped Tools for Precision Machining
Custom carbide-tipped cutting tools are engineered for metal-machining applications that require special diameters, profiles, steps, tapers, radii, grooves, chamfers or combined cutting features.
The carbide cutting elements provide hardness, wear resistance and cutting performance, while the steel body provides toughness, structural support and greater design flexibility.
This combination is particularly suitable for:
- Large-diameter cutting tools
- Long-reach tools
- Special form tools
- Complex-profile tools
- Low- and medium-volume custom tooling
- Applications where solid carbide would add unnecessary material cost
- Tools requiring a tough steel body and wear-resistant carbide cutting edges
Each custom carbide-tipped tool should be designed around the specific part geometry, workpiece material, machine constraints and cutting conditions of the application. Engineering inputs include dimensional tolerances, required surface finish, holder interface, cutting direction, coolant method, cutting data and target tool life.When the tool geometry is engineered around the actual part and machining process, custom cutting tools can help minimize waste and reduce scrap rates by improving repeatability and reducing tolerance deviations between operations.
Aoshiji® supplies made-to-drawing carbide-tipped cutting tools for automotive, bearing, hydraulic, energy, aerospace and general precision-machining applications.
02 What Are Carbide-Tipped and Brazed Carbide Cutting Tools?
In many industrial cutting-tool applications, the terms carbide-tipped tool and brazed carbide tool describe the same basic tool construction: carbide cutting elements permanently brazed to a steel tool body.
The term carbide-tipped describes the cutting material and tool structure. The term brazed carbide describes the manufacturing process used to join the carbide cutting elements to the steel body.
Examples include:
- Carbide-tipped drill / brazed carbide drill
- Carbide-tipped reamer / brazed carbide reamer
- Carbide-tipped milling cutter / brazed carbide milling cutter
- Carbide-tipped form tool / brazed carbide form tool
- Carbide-tipped turning tool / brazed carbide turning tool
On this page, these terms refer specifically to custom cutting tools with carbide tips, blades or bars brazed to a steel body.
Standard Brazed Carbide Tool Bits vs Custom Tool Engineering
In many North American and European industrial catalogs, brazed carbide tools commonly refer to standard single-point lathe tools, carbide-tipped tool bits, boring tools, grooving tools, cutoff tools and threading tools.
These standard catalog tools are usually selected according to shank size, cutting direction, tool style, nose radius or turning operation.
Aoshiji® focuses primarily on custom engineered cutting tools. These tools are designed according to the customer’s part drawing, tool drawing and actual production conditions.
Custom carbide-tipped tools may require:
- Non-standard diameters
- Multiple cutting steps
- Formed profiles
- Special taper angles
- Internal or external radii
- Combined drilling and chamfering
- Controlled cutting-edge positions
- Internal coolant
- Special holder interfaces
- Application-specific carbide grades
- Dynamic balancing for large rotating tools
The basic carbide-to-steel construction may be similar, but the engineering requirements are very different from those of a standard catalog lathe tool.
03 Types of Custom Carbide-Tipped Cutting Tools
Custom carbide-tipped turning tools are designed for profiling, grooving, chamfering, contour turning, form turning, internal turning and special lathe operations.
They may use square, round or specially shaped steel shanks with carbide cutting elements brazed to the required cutting position.
Typical options include:
Form turning tools
Profiling tools
Grooving tools
Internal boring tools
Chamfering tools
Radius turning tools
Special contour tools
Round-shank and square-shank designs
The cutting geometry should be selected according to the workpiece material, cutting direction, machine rigidity, chip flow and required surface finish.
Custom form milling cutters generate a defined contour directly with the cutting-edge profile.Custom carbide-tipped end mills can be engineered for non-standard diameters, cutting lengths, profiles, radii and application-specific cutting geometries.
Typical applications include:
- Concave and convex profiles
- Bearing-cage features
- Formed grooves
- Special radii
- Angular profiles
- Multiple-step profiles
- Large formed holes
- Special contour surfaces
The cutter profile must account for the workpiece geometry, cutting direction, flute spacing, clearance, chip evacuation and regrinding allowance.
Carbide-tipped counterbores are used to machine flat-bottom, stepped, angled or specially formed recesses.
Design options include:
- Standard flat-bottom counterbores
- Step counterbores
- Form counterbores
- Profile counterbores
- Guided counterbores
- Pilot counterbores
- Large-diameter counterbores
- Internal-coolant counterbores
For demanding formed-hole applications, the tool may require reinforced body sections, controlled edge preparation and application-specific chip evacuation.
Custom carbide-tipped side and face milling cutters are used for slotting, grooving, shoulder milling, side cutting and stepped-slot machining.
Typical designs include:
- Straight-tooth cutters
- Staggered-tooth cutters
- Large-diameter cutters
- Narrow-width cutters
- Stepped cutters
- T-slot-related profiles
- Cutters with side and peripheral cutting edges
The correct industry term is side and face milling cutter. The side clearance, axial runout, radial runout, tooth spacing and chip space must be controlled according to the slot width and machining conditions.
Custom carbide-tipped drills are designed for metal-machining applications that cannot be completed efficiently with standard drill geometries.
Typical configurations include:
- Large-diameter drills
- Step drills
- Form drills
- Chamfer drills
- Drill-counterbore combinations
- Drill-reamer combinations
- Radius-form drills
- Internal-coolant drills
- Special-profile drills
A carbide-tipped drill can combine several cutting features in one tool, reducing tool changes and improving the positional relationship between machined features.
Custom carbide-tipped reamers are used for precision sizing and finishing of cylindrical, stepped, tapered and formed holes.
Available designs may include:
- Straight-flute reamers
- Multi-flute reamers
- Step reamers
- Taper reamers
- Form reamers
- Chamfer reamers
- Internal-coolant reamers
- Long-reach reamers
The flute number, cutting allowance, guide section, edge preparation and coolant arrangement are selected according to the required hole tolerance, roundness, surface finish and chip condition.
Custom carbide form tools combine several cutting features into one engineered tool.
They may include:
Form turning tools
Form drills
Form reamers
Form milling cutters
Profile counterbores
Radius tools
Combination tools
Special contour cutters
These tools are especially valuable when the workpiece requires a repeatable profile that would otherwise need several standard tools or multiple machining operations.
When the geometry permits, one custom carbide-tipped tool can consolidate multiple machining operations into a single tool, resulting in reduced cycle times, fewer tool changes, and shorter setup times.
04 Why Choose Brazed Carbide Cutting Tools?
Lower carbide usage → Better cost control
Lower Carbide Material Cost
A carbide-tipped tool uses carbide only at the cutting areas. The remaining tool structure is manufactured from steel.
As tool diameter, length and profile complexity increase, the material cost of a solid-carbide construction can rise substantially. Brazed carbide construction can reduce carbide consumption while maintaining carbide performance at the cutting edges.
Greater Design Flexibility
A steel tool body can be manufactured with complex profiles, large diameters, long reaches, mounting holes, internal coolant passages and special machine interfaces.
This provides greater design flexibility for custom tools that would be difficult or unnecessarily expensive to manufacture entirely from solid carbide.
Tough Structural Support
The steel body provides toughness and structural support for the carbide cutting elements.
Actual cutting stability depends on several factors, including:
- Tool diameter
- Overhang
- Core thickness
- Holder rigidity
- Cutting-force direction
- Tooth spacing
- Machine condition
- Dynamic balance
- Cutting parameters
A properly designed steel body can support large carbide tips or bars while reducing the risk of brittle fracture in the main tool structure.
Carbide Cutting Tools: Application-Specific Cutting Geometry
The carbide cutting elements can be ground with application-specific geometry, including:
- Positive or negative rake angles
- Radial and axial clearance
- Chipbreaker grooves
- Cutting-edge chamfers
- Micro-radius edge preparation
- Edge honing
- Polished rake surfaces
- Reinforced edges for interrupted cutting
This allows the tool to be optimized for the workpiece material and actual cutting conditions.Compared with high-speed steel (HSS), carbide cutting edges retain hardness and edge stability better at elevated cutting temperatures. Carbide cutting tools also generally hold a sharp cutting edge longer than high-speed steel under suitable machining conditions. When the workpiece material, machine rigidity, coolant delivery and cutting geometry permit, this heat resistance can support higher cutting speeds and improved productivity.
Regrinding and Lifecycle Value
Depending on the original tool design and remaining carbide allowance, many carbide-tipped tools can be reground and returned to service.
Some large tools may also be suitable for retipping when the steel body remains usable. Regrinding and retipping feasibility must be reviewed according to the profile tolerance, brazed-joint condition and remaining carbide thickness.Longer tool life and consistent performance over long production runs can help reduce costs by lowering tool-change frequency while supporting stable quality and dimensional accuracy. For roughing and finishing operations, optimal performance depends on carbide grade, cutting geometry, machine stability, workpiece material and actual cutting parameters.
05 Precision Machining Applications and Workpiece Materials
Custom carbide-tipped cutting tools can be used in a wide range of metal-machining applications.
Cast Iron and Ductile Iron
Typical applications include:
- Bearing cages and retainers
- Pump housings
- Valve bodies
- Gear housings
- Machinery components
- Large formed holes
Cast iron and ductile iron machining often requires good wear resistance, edge security and stable performance under interrupted cutting.
For QT400 and QT500 ductile iron, the tool may require a tougher carbide direction, reinforced edge preparation and optimized cutting geometry.
Carbon and Alloy Steel
Carbide-tipped tools can be used for:
- Shafts
- Flanges
- Machine components
- Welded structures
- Automotive components
- General engineering parts
The tool design must consider chip formation, cutting temperature, built-up edge, cutting continuity and machine rigidity.
Stainless Steel
Stainless steel can generate heat, work hardening and difficult chip formation.
For these materials, the tool may require:
- Positive cutting geometry
- Controlled edge preparation
- Effective coolant delivery
- Suitable chipbreaker geometry
- A carbide grade with sufficient toughness
In some stainless-steel applications, coated solid-carbide or indexable tools may be more suitable. The final tool construction should be selected after reviewing the complete machining process.
Aluminum and Non-Ferrous Metals
Carbide-tipped cutting tools can be designed for:
- Aluminum alloys
- Brass
- Bronze
- Copper
- Copper alloys
- Other non-ferrous materials
These applications often require sharp cutting edges, polished rake surfaces and geometry that reduces built-up edge, smearing and burr formation.
Heat-Resistant and Hardened Materials
Heat-resistant alloys, titanium alloys and hardened steels require careful evaluation.
Depending on the material hardness, cutting speed and production requirement, solid carbide, coated carbide, CBN, PCD or indexable tooling may be more appropriate than brazed carbide construction.
06 Custom Tool Design Options
Custom Tool Carbide Tip, Blade and Bar Configuration
The carbide cutting elements may be designed as:
- Individual carbide tips
- Full-width carbide blades
- Long carbide bars
- Profiled carbide segments
- Multiple brazed cutting elements
- Continuous carbide cutting sections
The configuration depends on the cutting load, tool size, available brazing area and required profile.
Carbide Seat and Brazed-Joint Design
The carbide seat must support the cutting element and provide a consistent brazing interface.
Important design factors include:
- Contact-surface geometry
- Cutting-force direction
- Carbide support behind the cutting edge
- Joint clearance
- Brazing filler flow
- Thermal expansion difference
- Residual stress after brazing
- Cutting-load distribution
A joint gap that is too small may restrict filler flow. A gap that is too large may reduce joint stability. The correct clearance depends on the tool structure, carbide size, steel-body material and selected brazing process.
Tool Body Material and Heat Treatment
Tool bodies may be manufactured from medium-carbon steel or alloy steel, depending on the tool size and loading conditions.
Typical material directions may include:
- Medium-carbon steel for general tool bodies
- 40Cr-type alloy steel
- 42CrMo-type alloy steel
- 4140-type alloy steel
- Other alloy steels for large or heavily loaded tools
Heat treatment should balance strength, toughness, dimensional stability, machinability and brazing compatibility. The final hardness must be specified according to the actual tool structure rather than using one fixed value for every tool.
Flute and Clearance Geometry
Flute number and clearance geometry influence:
- Cutting load per tooth
- Chip space
- Surface finish
- Tool strength
- Feed capability
- Vibration behavior
- Coolant access
A tool with more cutting edges may provide a smoother cutting action, but insufficient chip space can cause chip packing. The correct flute number must match the workpiece material, cutting allowance and feed rate.
Internal Coolant
Internal coolant passages may be incorporated when the tool-body wall thickness, brazed structure and machine interface permit a safe design.
Internal coolant can help:
- Deliver coolant directly to the cutting zone
- Improve chip evacuation
- Reduce local cutting temperature
- Prevent chip packing
- Improve consistency in deep-hole applications
Coolant-hole position and diameter must not weaken the tool body or interfere with the brazed joint.
Chipbreaker and Chip-Evacuation Geometry
Chipbreaker grooves can be ground into the carbide cutting elements where required.
The groove width, depth, position and profile should be selected according to:
- Workpiece material
- Cutting allowance
- Feed rate
- Chip thickness
- Cutting direction
- Coolant method
- Required surface finish
The objective is to control chip flow without unnecessarily weakening the cutting edge.
Cutting-Edge Preparation
The cutting edge may be prepared using:
- Sharp-ground edge
- Small cutting-edge chamfer
- Micro-radius edge
- Edge honing
- Controlled edge rounding
- Reinforced edge preparation
Sharper edges are often suitable for aluminum, copper alloys and other non-ferrous materials. Stronger edge preparation may be required for cast iron, ductile iron and interrupted cutting.
The correct edge condition should balance sharpness, edge security, burr control and surface finish.
Shank, Interface and High-Speed Dynamic Balancing
Custom tools may use:
- Straight shanks
- Taper shanks
- Morse taper interfaces
- BT, CAT or HSK-related interfaces
- Flange-mounted bodies
- Custom mounting systems
- Weldon flats
- Threaded connections
Large or high-speed rotating tools may require dynamic balancing. The required balance level depends on cutter diameter, mass distribution, spindle speed and machine condition.
07 Carbide Grade and Tool Body Material Selection
Carbide grade selection must balance wear resistance, fracture resistance, edge security, surface-finish requirements and brazing compatibility.
The hardest carbide grade is not automatically the best grade. A highly wear-resistant grade may chip under interrupted cutting, while a tougher grade may provide better edge security but lower wear resistance.
ISO workpiece-material groups provide a useful starting point:
| ISO Group | Typical Workpiece Materials |
|---|---|
| P | Carbon steel, alloy steel and other steels |
| M | Stainless steels |
| K | Gray cast iron, ductile iron and other cast irons |
| N | Aluminum, copper, brass, bronze and other non-ferrous materials |
| S | Heat-resistant superalloys and titanium alloys |
| H | Hardened steels and hardened materials |
These ISO groups are application categories, not universal proprietary carbide-grade names.
The final carbide selection should consider:
- Workpiece material and hardness
- Continuous or interrupted cutting
- Cutting speed and feed
- Machine and fixture rigidity
- Coolant condition
- Tool diameter and overhang
- Cutting-edge geometry
- Surface-finish requirement
- Target tool life
- Brazing temperature and joint design
Carbide properties such as grain size, binder content, transverse rupture strength and thermal behavior may also influence the final choice.Most cemented-carbide cutting grades use tungsten carbide (WC) as the hard phase with a metallic binder, commonly cobalt. Carbide grain size and binder content are selected according to the required balance of wear resistance, toughness and cutting performance.
For non-ferrous applications, a fine-grain carbide and polished rake surface may help reduce built-up edge and material adhesion.
For interrupted cast-iron or ductile-iron machining, a tougher carbide direction and stronger edge support may provide better edge security.
The tool-body material must also match the tool size, cutting load, holder interface and heat-treatment requirements.
08 Carbide-Tipped vs Solid Carbide vs High Speed Steel (HSS) vs Indexable Tools
No single tool construction is best for every machining application.
Carbide Cutting Tools vs High Speed Steel (HSS)
| Selection Factor | Carbide-Tipped Tool | Solid-Carbide Tool | High Speed Steel (HSS) Tool | Indexable Tool |
|---|---|---|---|---|
| Large tool diameter | Often cost-effective because carbide is concentrated at the cutting edge | Higher carbide material cost | Possible, but wear resistance may limit productivity in demanding production | Suitable when standard inserts can generate the required profile |
| Complex custom profile | Highly suitable for brazed and precision-ground profiles | Technically suitable but potentially expensive | Suitable where toughness, lower cutting speed or easier regrinding is important | Limited by available insert geometry |
| Small high-speed tool | Usually not the first choice | Often preferred for stiffness and compact geometry | Generally more suitable for lower or moderate cutting speeds | Depends on minimum usable insert size |
| Tool-body toughness | Tough steel support structure | More brittle than steel-bodied constructions | High toughness and resistance to shock | Strong steel tool body |
| Wear resistance | High at the carbide cutting edge | High throughout the cutting portion | Lower than carbide in demanding abrasive applications | Depends on insert grade |
| Elevated cutting temperature | Carbide cutting edges retain hardness and cutting performance well | Strong high-temperature cutting performance | Lower hot hardness than carbide | Depends on insert grade |
| Regrinding | Can be reground and, depending on design, retipped | Can be reground | Generally easier to regrind | Inserts are replaced rather than reground in most applications |
| One-piece profile accuracy | Strong advantage | Strong advantage | Suitable for precision-ground form profiles | May require several inserts |
| Low-volume custom production | Often economical | Material cost may be high | Can be economical for appropriate cutting conditions | Custom holder development may be costly |
| Long production runs | Strong when wear resistance and profile consistency are important | Strong for suitable small and rigid tools | Application-dependent | Often highly productive when standard insert geometry is suitable |
Carbide-tipped construction is often suitable when the tool is large, long, profile-specific or produced in low-to-medium quantities. A steel body provides toughness and structural support, while the carbide cutting edge provides wear resistance and maintains cutting performance at elevated temperatures.
Solid carbide cutting tools are often preferred for smaller tools requiring high stiffness, high rotational speed, compact geometry and precise cutting-edge control.
High speed steel (HSS) tools may be preferred when toughness, resistance to shock, easier regrinding or lower-to-moderate cutting speeds are more important than maximum wear resistance. Compared with HSS, carbide cutting edges generally retain hardness better at elevated cutting temperatures and can provide longer cutting-edge life under suitable machining conditions.
Indexable tools are often suitable when standard replaceable inserts can generate the required feature and production volume justifies the holder design.
The final selection should be based on total cost per part rather than tool purchase price alone.
In a specific application, a custom carbide tool may support higher cutting speeds than a standard tool when the carbide grade, cutting geometry, chip evacuation, coolant delivery and tool rigidity are optimized for the operation. However, allowable cutting speed must still be determined by the workpiece material, machine condition, tool geometry and actual cutting parameters.
09 Custom Tool Requirements for Quotation
To evaluate a custom carbide-tipped cutting tool, please provide as much of the following information as possible:
- Part drawing or tool drawing
- Workpiece material
- Workpiece hardness
- Required feature dimensions
- Profile, angle, radius and step information
- Dimensional tolerance
- Required surface finish
- Machine-tool type
- Spindle or tool-holder interface
- Cutting direction
- Coolant method and pressure
- Existing cutting speed and feed
- Current tool life
- Current machining problems
- Required tool quantity
- Target cycle time
- Regrinding or retipping requirements
A complete part drawing is especially helpful when the cutting-edge profile must be calculated from the final workpiece geometry.
For replacement-tool projects, customers may also provide:
- Existing tool drawing
- Worn tool sample
- Tool photographs
- Previous cutting data
- Failure photographs
- Inspection reports
These details allow the engineering team to evaluate the tool construction, carbide grade, cutting geometry, joint design, chip evacuation and inspection requirements before quotation.
10 Aoshiji® Engineering, Manufacturing and Inspection Capabilities
Aoshiji® Custom Tool is an integrated custom cutting tool manufacturer with engineering, manufacturing, brazing, precision grinding and inspection capabilities for drawing-based tooling projects.
Precision Machining Engineering Review
Our engineering review may include:
- Part and tool drawing review
- Workpiece-material analysis
- Cutting-force direction
- Tool-body strength
- Carbide support structure
- Clearance geometry
- Chip evacuation
- Coolant requirements
- Holder and machine compatibility
- Regrinding allowance
- Inspection criteria
Manufacturing
Depending on the tool design, the manufacturing process may include:
- Steel-body machining
- Tool-body heat treatment
- Carbide cutting and preparation
- Carbide-seat fitting
- Controlled brazing
- Precision profile grinding
- Flute and clearance grinding
- Chipbreaker grinding
- Edge honing and chamfering
- Shank and locating-surface grinding
- Internal coolant-hole manufacturing
- Dynamic balancing where required
- Surface treatment and marking
Inspection
Final inspection may include:
- Overall dimensions
- Cutting-edge profile
- Step diameters
- Taper angles
- Radius and chamfer dimensions
- Shank diameter
- Locating surfaces
- Radial and axial runout
- Concentricity
- Cutting-edge condition
- Brazed-joint condition
- Drawing compliance
The inspection method and acceptance criteria are determined according to the customer drawing and tool function.
Our objective is to provide stable cutting performance, reliable dimensional control, improved tool life and a cost-effective solution for custom metal-machining applications.
11 Frequently Asked Questions
Are carbide-tipped tools and brazed carbide tools the same?
In many custom cutting-tool applications, the terms describe the same construction: carbide cutting elements brazed to a steel tool body. Carbide-tipped describes the cutting-edge structure, while brazed carbide describes the joining method.
When should I choose a carbide-tipped tool instead of solid carbide?
Carbide-tipped construction is often preferred for large-diameter, long-reach or complex-profile tools where only the cutting edges require carbide performance. Solid carbide is often more suitable for smaller tools requiring high stiffness and high-speed capability.
Can carbide-tipped tools be manufactured from a customer drawing?
Yes. Aoshiji® manufactures made-to-drawing tools based on the required profile, tolerance, workpiece material, machine interface, coolant method and production conditions.
Which materials can carbide-tipped cutting tools machine?
Typical applications include cast iron, ductile iron, carbon steel, alloy steel, aluminum, brass, bronze and copper alloys. Stainless steel, heat-resistant alloys and hardened materials require a more detailed application review.
Can a brazed carbide tool include internal coolant?
Internal coolant passages can be incorporated when the tool-body geometry, wall thickness, brazed structure and machine interface permit a safe and effective design.
Can carbide-tipped tools be reground or retipped?
Many designs can be reground, and some large tools can be retipped. Feasibility depends on the remaining carbide allowance, profile tolerance, brazed-joint condition and original tool construction.
What information is required for a quotation?
A part or tool drawing, workpiece material, tolerance, surface-finish requirement, machine interface, coolant method, current cutting data, existing tool life and required quantity are normally requested.
What is the typical production lead time?
Typical lead time is approximately 7–21 days after the drawing and technical details are confirmed. Complex tools, special materials and larger quantities may require additional time.
Can one carbide-tipped tool machine several features?
Yes. A custom tool may combine drilling, counterboring, chamfering, reaming, profiling or form cutting in one operation. The feasibility depends on the cutting load, chip evacuation, machine power and required tolerance.
They can be designed for interrupted cutting, but the carbide grade, edge preparation, carbide support, brazed-joint design and tool-body strength must be selected accordingly.
12 Related Products：
Explore dedicated product pages for custom carbide-tipped cutting tools used in turning, drilling, reaming, milling, counterboring and profile machining.
Custom turning, profiling, grooving and form tools with brazed carbide cutting edges.
Profile milling cutters for formed surfaces, bearing components, grooves and special contour machining.
Flat-bottom, stepped, guided and profile counterbores for precision recess machining.
Custom side and face cutters for slotting, grooving, shoulder milling and stepped-slot machining.
Custom industrial drills for metal machining, including step drills, form drills and combination tools.
Step, taper, form and internal-coolant reamers designed for precision hole finishing.
Made-to-drawing form tools for profiles, radii, steps, tapers, grooves and combined features.
Compare brazed carbide, solid carbide and indexable tools by rigidity, profile flexibility, tool life, cost and production volume.
13 Related Case Studies：
Request a Custom Carbide-Tipped Tool Review
Send us your part drawing, tool drawing, workpiece material and current machining conditions.
Aoshiji® will review the tool profile, carbide grade, steel-body construction, cutting-edge geometry, coolant requirements, holder interface and inspection criteria before quotation.Email: [email protected]
