Carbide-Tipped (Brazed Carbide) Tools vs Solid Carbide and Indexable Tools
Carbide-tipped tools, also known as brazed carbide tools, use carbide cutting edges permanently brazed onto steel tool bodies. This guide compares carbide-tipped tools with solid carbide tools and indexable tools based on rigidity, custom geometry, tool life, production volume and cost per part.Brazed carbide tools, solid carbide tools and indexable tools use different construction methods to solve different machining requirements.
A brazed carbide tool uses cemented carbide cutting edges brazed onto a steel tool body. A solid carbide tool is manufactured primarily from cemented carbide. An indexable tool uses mechanically clamped, replaceable inserts mounted in a reusable tool body.
The correct choice depends on more than tool price. Engineers should evaluate tool diameter, cutting profile, workpiece material, machine rigidity, cutting load, tolerance, surface finish, production volume, reconditioning options and total cost per accepted component.
Aoshiji® Custom Tool develops drawing-based cutting tools for industrial manufacturers, machine shops, OEM plants, cutting-tool distributors and tooling suppliers in North America, Europe and other international markets.
Quick Selection Guide
Choose brazed carbide construction when:
- The cutter is large, long or heavy
- The profile is non-standard
- A radius, taper, step or formed feature must be produced
- Only the cutting area requires carbide
- Standard inserts cannot reproduce the required geometry
- Low-to-medium production volume does not justify special indexable tooling
- A steel body provides better economy and structural toughness
Choose solid carbide construction when:
- The tool diameter is relatively small
- High stiffness and low deflection are required
- The machine, spindle and holder are sufficiently rigid
- The operation requires high dimensional consistency
- The geometry can be ground economically from a carbide blank
- A monolithic rotary tool is preferred
Choose indexable tooling when:
- The machining operation is standard
- Production volume is high
- Replaceable cutting edges reduce downtime
- Standard insert shapes can produce the required feature
- Roughing efficiency and rapid edge replacement are priorities
- Insert grade and chipbreaker flexibility are valuable
Table of Contents
- Understanding the Three Tool Structures
- Carbide-Tipped vs Brazed Carbide
- How Each Tool Is Constructed
- Engineering Comparison Table
- Rigidity, Toughness and Cutting Stability
- Dimensional Accuracy and Surface Finish
- Custom Form and Profile Capability
- Tool Life, Regrinding and Edge Replacement
- Tool Cost and Cost per Part
- Production Volume and Changeover Requirements
- When to Choose Brazed Carbide Tools
- When to Choose Solid Carbide Tools
- When to Choose Indexable Tools
- Limitations and Failure Risks
- Tool Structure Selection Process
- Aoshiji Application Example
- Support for Distributors and Manufacturers
- Information Required for a Recommendation
- Frequently Asked Questions
- Related Technical and Product Pages
- Request an Engineering Review
01 Understanding the Three Tool Structures
The three tool structures differ primarily in how the cutting material is supported and how a worn cutting edge is restored or replaced.
Brazed Carbide Tools
A brazed carbide tool has carbide tips, carbide bars or profile-ground carbide cutting sections permanently brazed onto a steel tool body.
The steel body provides:
- Structural support
- Toughness
- Design flexibility
- Lower carbide consumption
- Practical construction for large tools
- Shank, bore and interface customization
The carbide provides:
- Cutting-edge hardness
- Wear resistance
- Edge retention
- Resistance to abrasive workpiece materials
- Higher cutting performance than an uncoated steel cutting edge
Solid Carbide Tools
A solid carbide tool is manufactured primarily from cemented carbide rather than using a separate steel cutting body.
The cutting edges, flute section and supporting body are ground from the same carbide blank. A steel or carbide extension may sometimes be used in specialized assemblies, but the functional cutting body remains carbide.
Solid carbide construction is common in:
- End mills
- Drills
- Reamers
- Thread mills
- Keyseat cutters
- Form cutters
- Micro tools
- Precision rotary tools
Indexable Tools
An indexable tool uses replaceable inserts mechanically secured to a reusable toolholder or cutter body.
The insert may be clamped with:
- A screw
- A wedge
- A lever
- A cartridge
- A top clamp
- Another mechanically retained insert-seat system
When one cutting edge wears, the insert can be indexed to another edge or replaced.
Indexable construction is widely used in:
- Turning
- Face milling
- Shoulder milling
- Boring
- Grooving
- Parting
- Roughing
- High-volume CNC production
For a broader explanation of carbide-tipped and brazed carbide tool construction, see our main product guide: Custom Carbide-Tipped Cutting Tools.
Lower carbide usage → Better cost control
02 Carbide-Tipped vs Brazed Carbide
Within Aoshiji custom tooling, carbide-tipped tool and brazed carbide tool generally refer to the same basic construction.
“Carbide-tipped” describes the cutting material and tool structure. The functional cutting edges are made from carbide and supported by a steel body.
“Brazed carbide” describes the joining method. The carbide cutting sections are permanently attached to the steel body through a controlled brazing process.
For this comparison page:
This terminology distinction is important when preparing drawings, quotations and repeat orders.
03 How Each Tool Is Constructed
Brazed Carbide Construction
A brazed carbide tool normally includes:
- Heat-treated steel tool body
- Machined carbide seats
- Cemented carbide tips or bars
- Controlled brazing clearance
- Selected brazing filler
- Precision-ground cutting profile
- Ground shank, bore or mounting interface
- Edge preparation after final grinding
The carbide seat must support the cutting load while maintaining a consistent brazing layer.
For large rotary tools, the design may also require:
- Symmetrical carbide distribution
- Controlled brazing distortion
- Radial and axial runout inspection
- Dynamic balancing
- Reinforced body sections
- Relief behind the carbide cutting area
Solid Carbide Construction
Solid carbide tools are ground from carbide blanks.
Typical manufacturing stages include:
- Carbide blank selection
- Centerless or cylindrical grinding
- Flute grinding
- Profile grinding
- Relief grinding
- Edge preparation
- Optional coating
- Diameter and runout inspection
Because the cutting body is monolithic, there is no brazed joint or insert seat in the cutting section.
Indexable Construction
An indexable tool includes:
- Steel or carbide tool body
- Precision-machined insert pockets
- Replaceable inserts
- Clamping components
- Coolant passages where required
- Adjustment cartridges in some designs
Insert pocket accuracy affects:
- Cutting-edge position
- Radial runout
- Axial runout
- Load distribution
- Finished dimensions
- Surface finish
04 Engineering Comparison Table
| Selection Factor | Brazed Carbide Tools | Solid Carbide Tools | Indexable Tools |
|---|---|---|---|
| Cutting structure | Carbide edges brazed onto a steel body | Monolithic carbide cutting body | Replaceable inserts in a reusable body |
| Large-diameter economy | Usually favorable | Carbide material cost can become high | Favorable when standard inserts fit the geometry |
| Small-diameter capability | Limited by brazing and support space | Excellent | Limited by insert and clamping size |
| Custom profile flexibility | Very high | High, especially for smaller tools | Moderate with standard inserts; high only with special inserts |
| Body toughness | Steel body provides structural toughness | High stiffness but lower impact tolerance than steel | Steel body is tough; insert edges remain brittle |
| Rigidity | Good when body design and overhang are controlled | Generally excellent for compact rotary tools | Depends on body, pocket and clamping rigidity |
| Cutting-edge replacement | Requires regrinding, retipping or rebuilding | Requires regrinding or complete replacement | Insert can be indexed or replaced |
| Regrinding potential | Often good | Often good within dimensional limits | Inserts are normally replaced rather than reground |
| Tool change time | Complete tool normally removed | Complete tool normally removed | Cutting edge can often be changed on the machine |
| One-pass form machining | Excellent for drawing-specific profiles | Excellent when size and carbide cost are practical | Limited by available insert profile and pocket design |
| Low-volume custom production | Often economical | Suitable for small custom tools | Special inserts may not be economical |
| High-volume standard production | Application-dependent | Suitable for stable precision operations | Frequently the most productive structure |
| Main design risk | Brazed joint and carbide support | Brittleness and carbide cost | Insert movement, pocket wear and geometry limitations |
05 Rigidity, Toughness and Cutting Stability
Rigidity is not determined by tool material alone.
The complete system includes:
- Tool diameter
- Tool length
- Core diameter
- Overhang
- Holder interface
- Spindle condition
- Machine rigidity
- Workpiece clamping
- Cutting-force direction
- Tooth engagement
- Coolant delivery
Brazed Carbide Tools
The steel body can provide useful toughness for large, long or interrupted-cut tools.
The cutting section must still be designed carefully because the carbide is brittle and the brazed interface must transfer cutting forces into the steel body.
Cutting stability depends on:
- Carbide-seat support
- Brazing contact area
- Brazing-gap consistency
- Body cross-section
- Edge height consistency
- Tooth spacing
- Tool runout
- Dynamic balance
Solid Carbide Tools
Solid carbide provides high stiffness and low elastic deflection relative to an equivalent steel body.
This is beneficial for:
- Small-diameter tools
- Precision finishing
- Controlled runout
- High spindle-speed rotary applications
- Rigid machining centers
- Stable toolholding systems
However, carbide is less tolerant of bending, impact and severe interrupted cutting than a tough steel body.
Indexable Tools
Indexable tool rigidity depends on:
- Tool-body design
- Insert-pocket support
- Clamping force
- Insert size
- Screw or wedge condition
- Pocket cleanliness
- Insert overhang
- Cartridge stability
A high-quality indexable cutter can be extremely rigid, but the insert-seat system introduces interfaces that must remain clean, accurate and securely clamped.
06 Dimensional Accuracy and Surface Finish
All three structures can produce accurate components when the tool and process are correctly engineered.
Accuracy is influenced by:
- Cutting-edge runout
- Tool deflection
- Edge wear
- Thermal growth
- Machine spindle runout
- Holder accuracy
- Cutting allowance
- Workpiece clamping
- Chip evacuation
- Cutting speed and feed
- Coolant condition
Brazed Carbide Accuracy
A brazed tool can produce precise forms when the carbide edges are finish-ground after brazing.
Critical controls include:
- Brazing distortion
- Profile grinding
- Edge-height consistency
- Shank or bore concentricity
- Axial and radial runout
- Carbide support behind the cutting edge
Solid Carbide Accuracy
Solid carbide tools are well suited to compact precision tools because the cutting body is ground from one material.
Advantages may include:
- Stable flute geometry
- High body stiffness
- Low runout potential
- Consistent edge location
- Fine cutting-edge preparation
Indexable Tool Accuracy
Indexable tools can provide excellent accuracy when insert seats, cartridges and clamping systems are controlled.
Finishing accuracy may be influenced by:
- Insert thickness tolerance
- Pocket-position tolerance
- Insert seating
- Wiper geometry
- Axial adjustment
- Radial adjustment
- Edge-to-edge consistency
07 Custom Form and Profile Capability
Custom profile flexibility is one of the strongest reasons to use brazed carbide construction.
Brazed Carbide Profile Capability
Carbide tips or bars can be positioned on a steel body and ground to produce:
- Formed holes
- Stepped diameters
- Tapered sections
- Full-radius profiles
- Partial-radius profiles
- Chamfers
- Concave forms
- Convex forms
- Groove profiles
- Angular profiles
- Combined cutting features
- Drawing-specific contours
Brazed construction is particularly useful when a large tool must reproduce a complex form in one pass.
Solid Carbide Profile Capability
Solid carbide tools can also be profile-ground for:
- Port contours
- Keyseat profiles
- Radius cutters
- Combination drills
- Step drills
- Form end mills
- Thread forms
- Chamfer forms
- Special reamers
Solid carbide is often most practical when the cutter is compact enough to be manufactured economically from a carbide blank.
Indexable Profile Capability
Standard indexable tools are limited by available insert shapes, nose radii, approach angles and clamping requirements.
Special profile inserts are possible, but they may require:
- Custom insert tooling
- Higher minimum order quantities
- Dedicated insert pockets
- Special clamping
- Insert inventory management
- Longer replacement lead times
For highly specific one-pass forms, a brazed or solid carbide profile tool may be simpler than a custom indexable system.
08 Tool Life, Regrinding and Edge Replacement
Tool life should be evaluated by accepted parts, not only by cutting time.
Brazed Carbide Tools
A brazed carbide tool may be:
- Reground
- Reprofiled
- Resharpened
- Retipped
- Rebuilt
The available reconditioning method depends on the remaining carbide thickness, profile tolerance and steel body condition.
Regrinding must preserve:
- Cutting diameter
- Form geometry
- Relief
- Margin
- Tooth height
- Tool width
- Runout
- Axial relationships between features
Solid Carbide Tools
Solid carbide tools are commonly reground when sufficient diameter and profile allowance remain.
After several regrinds, the tool may require:
- Diameter compensation
- Updated CNC offsets
- Recoating
- Revised cutting parameters
- Removal from applications with fixed-size requirements
Indexable Tools
Indexable inserts are normally rotated to an unused edge or replaced.
This provides:
- Fast edge renewal
- Reduced regrinding logistics
- Predictable spare-edge inventory
- Shorter maintenance time
- Easier grade or chipbreaker changes
The tool body and insert pockets must still be inspected for wear or damage.
09 Tool Cost and Cost per Part
The lowest purchase price does not always produce the lowest machining cost.
A practical cost-per-part calculation should include:
Cost per accepted part =
Tool purchase cost
- insert or regrinding cost
- setup and tool-change time
- machine downtime
- scrap and rework cost
- inventory cost
- unexpected failure cost
divided by the number of accepted components produced.
Brazed Carbide Cost Logic
Brazed construction uses carbide only in the cutting zone.
It can be economical for:
- Large-diameter tools
- Heavy steel bodies
- Long-reach tools
- Form counterbores
- Form milling cutters
- Large reamers
- Special drills
- Side and face cutters
- Low-to-medium custom quantities
Solid Carbide Cost Logic
Solid carbide can be highly economical for compact tools because it provides rigidity, edge density and repeatable grinding in one body.
Cost rises as:
- Tool diameter increases
- Tool length increases
- Blank volume increases
- Profile complexity increases
- Large amounts of carbide must be removed during grinding
Indexable Tool Cost Logic
Indexable tools can reduce cost in standard, high-volume production because only the insert is replaced.
Total cost may increase when the application requires:
- Special inserts
- Dedicated cartridges
- Custom holders
- Multiple insert styles
- Large insert inventory
- Complex adjustment procedures
10 Production Volume and Changeover Requirements
Production volume influences tool selection but should not be used as the only criterion.
Low-Volume Custom Production
Brazed carbide tools may be practical when:
- The geometry is highly customized
- Only a small number of tools is required
- Custom indexable inserts would require excessive minimum quantities
- One tool can replace several standard operations
Medium-Volume Production
Brazed, solid carbide or indexable construction may all be suitable.
The decision should consider:
- Tool life
- Regrinding cycle
- Setup frequency
- Feature complexity
- Machine availability
- Required spare-tool quantity
High-Volume Production
Indexable tooling is often attractive because worn edges can be changed quickly.
Solid carbide may still be preferred for:
- Small precision holes
- High-speed drilling
- Fine milling
- Reaming
- Operations requiring monolithic rigidity
Brazed carbide may remain appropriate when a large custom form must be produced consistently and standard inserts cannot generate the profile.
11 When to Choose Brazed Carbide Tools
Brazed carbide construction should be considered when:
- The tool diameter is large
- The cutting body is long or heavy
- A large steel body is more economical than a carbide blank
- The cutting profile is highly customized
- One-pass forming is required
- The tool combines multiple diameters or profiles
- The application requires a special counterbore
- The tool must generate a full-radius or tapered form
- Standard inserts cannot reproduce the required contour
- Low-to-medium production volume does not justify custom insert tooling
- Regrinding or rebuilding is required
- Steel-body toughness is valuable
Typical applications include:
- Brazed carbide form milling cutters
- Carbide-tipped counterbores
- Large-diameter reamers
- Step reamers
- Form drills
- Combination drills
- Custom turning form tools
- Side and face milling cutters
- T-slot cutters
- Special profile cutters
12 When to Choose Solid Carbide Tools
Solid carbide construction should be considered when:
- The tool diameter is relatively small
- High body stiffness is required
- Tool deflection must be minimized
- The spindle and holder are highly accurate
- The tool will operate at high rotational speed
- A monolithic cutting body improves stability
- The profile can be ground economically
- The operation requires precise flute geometry
- The application benefits from coating the complete cutting section
Typical applications include:
- End mills
- Micro end mills
- Precision drills
- Step drills
- Reamers
- Thread mills
- Keyseat cutters
- Port contour cutters
- Chamfer mills
- Small form cutters
13 When to Choose Indexable Tools
Indexable construction should be considered when:
- The operation is standard
- Production volume is high
- Cutting edges must be replaced quickly
- Tool-change downtime is expensive
- Standard insert shapes match the required geometry
- Multiple grades or chipbreakers are needed
- Roughing productivity is a priority
- High metal-removal rates are required
- Insert inventory can be standardized across several machines
Typical applications include:
- Turning
- Face milling
- Shoulder milling
- Boring
- Grooving
- Parting
- Rough milling
- Heavy-duty machining
- Standard chamfering
- High-volume production
14 Limitations and Failure Risks
Brazed Carbide Tool Risks
Possible risks include:
- Inadequate carbide support
- Excessive brazing gap
- Uneven brazing filler
- Thermal distortion
- Carbide cracking
- Brazed-joint failure
- Excessive tool runout
- Poor balance
- Incorrect filler selection
- Insufficient post-brazing inspection
Brazed construction may not be suitable when the tool is extremely small, operates under excessive thermal load or requires carbide-level rigidity throughout the entire body.
Solid Carbide Tool Risks
Possible risks include:
- Brittle fracture
- Chipping during interrupted cutting
- Breakage from excessive runout
- Failure under bending load
- High blank cost
- High replacement cost for large tools
- Sensitivity to unstable fixturing
Indexable Tool Risks
Possible risks include:
- Insert movement
- Pocket damage
- Screw failure
- Chip packing below the insert
- Uneven edge loading
- Insert-seat contamination
- Limited profile capability
- Incorrect insert grade or chipbreaker
- Edge-to-edge dimensional variation
15 Tool Structure Selection Process
Aoshiji evaluates the complete machining process before recommending a tool structure.
Step 1: Define the Feature
Confirm:
- Diameter
- Width
- Depth
- Radius
- Taper
- Chamfer
- Step
- Profile
- Tolerance
- Surface finish
Step 2: Review the Workpiece
Confirm:
- Material specification
- Hardness
- Heat treatment
- Cast or forged condition
- Interrupted surfaces
- Abrasiveness
- Burr sensitivity
- Work-hardening tendency
Step 3: Review the Machine Setup
Confirm:
- Machine type
- Spindle interface
- Holder
- Available power
- Maximum speed
- Rigidity
- Tool overhang
- Workpiece clamping
- Coolant system
Step 4: Review Production Requirements
Confirm:
- Batch quantity
- Annual demand
- Cycle-time target
- Current tool life
- Tool-change time
- Regrinding availability
- Spare-tool requirements
- Target cost per part
Step 5: Select the Tool Structure
The final recommendation may be:
- Brazed carbide
- Solid carbide
- Indexable
- A combination tool
- Roughing and finishing tools
- A replaceable-head system
- Another cutting-tool construction
16 Aoshiji Application Example
Brazed Carbide Form Counterbore for Wind-Turbine Bearing Cage Machining
A large wind-turbine bearing-cage application required machining a formed blind hole in QT400/QT500 ductile iron.
Component Requirement
| Item | Requirement |
|---|---|
| Finished diameter | Ø156.2 mm |
| Form angle | 6.75° |
| Machining depth | 159 mm |
| Diameter tolerance | 0 / +0.03 mm |
| Surface finish | Ra ≤ 3.2 |
| Cutting condition | Interrupted cutting with vibration risk |
| Machine | Horizontal boring machine |
Tool Structure Decision
A full solid carbide body would have required excessive carbide material for this diameter and length.
A standard indexable system could not reproduce the complete drawing-defined form as directly as a profile-ground tool.
A brazed carbide construction was therefore selected with:
- Heat-treated alloy-steel body
- Brazed carbide cutting edges
- Two-flute form geometry
- Reinforced core
- Chip-control features
- Roughing and finishing tool strategy
- MT5 interface adapted to BT50
- Dynamic balancing
- Drawing-specific profile grinding
Production Result
The roughing-tool life increased from approximately 8 components to 28 components in the customer’s application.
The optimized process also improved:
- Dimensional stability
- Form consistency
- Surface finish
- Chip evacuation
- Resistance to edge chipping
- Production-cycle stability
This application demonstrates why tool construction should be selected from the complete geometry and machining conditions rather than from carbide material alone.
17 Support for Distributors and Manufacturers
Aoshiji® Custom Tool supports:
- Cutting-tool distributors
- Industrial tooling suppliers
- OEM manufacturing plants
- CNC machine shops
- Machine-tool companies
- Process-engineering departments
- Maintenance and production teams
We can evaluate a requirement from:
- Component drawing
- Existing tool drawing
- Tool sample
- Dimensional sketch
- Current tool specification
- Machining video
- Tool-failure photographs
- Production problem description
Support may include:
- Tool-structure comparison
- Drawing review
- Brazed, solid carbide or indexable concept evaluation
- Carbide-grade recommendations
- Tool-body design
- Form-profile development
- Manufacturing drawing approval
- Revision-controlled repeat production
- Regrinding evaluation
- International shipment coordination
Engineering communication is coordinated from Dalian, with custom-tool production managed through qualified manufacturing resources in Shanghai and other specialist partner facilities.
18 Information Required for a Recommendation
Please provide as much of the following information as possible.
Component and Tool Geometry
- Component drawing in PDF, DWG, DXF or STEP
- Existing tool drawing
- Required operation
- Tool diameter
- Tool length
- Cutting depth
- Required profile
- Radius
- Taper
- Chamfer
- Step dimensions
- Dimensional tolerance
- Surface-finish requirement
Workpiece Information
- Material specification
- Hardness
- Heat-treatment condition
- Cast, forged or machined surface
- Interrupted or continuous cutting condition
Machine and Process Information
- Machine tool
- Spindle interface
- Toolholder
- Maximum spindle speed
- Available power
- Coolant method
- Current cutting speed
- Current feed
- Current tool life
- Existing failure mode
- Required production quantity
- Annual demand
- Target cost per part
Engineering Email: [email protected]
19 Frequently Asked Questions
What is the difference between brazed carbide and solid carbide tools?
A brazed carbide tool uses carbide cutting edges permanently joined to a steel body. A solid carbide tool uses a monolithic carbide cutting body. Brazed construction is often economical for large or formed tools, while solid carbide is commonly used for compact, rigid precision tools.
Is carbide-tipped the same as brazed carbide?
In Aoshiji custom tooling, carbide-tipped normally refers to carbide cutting edges brazed onto a steel body. Carbide-tipped describes the tool structure, while brazed carbide describes the joining process.
Are brazed carbide tools cheaper than solid carbide tools?
They can be more economical for large-diameter, long or complex tools because carbide is used only in the cutting area. The final cost depends on tool geometry, carbide grade, grinding complexity and required quantity.
Are solid carbide tools always more accurate?
No. Solid carbide provides high stiffness, but actual accuracy also depends on tool grinding, runout, holder accuracy, machine condition, cutting forces, thermal stability and workpiece clamping.
When should an indexable tool be used?
Indexable tooling is usually preferred when the operation is standard, production volume is high, replaceable edges reduce downtime and commercially available inserts can generate the required geometry.
When is a brazed carbide tool better than an indexable tool?
Brazed carbide may be more practical when the required form is highly customized, the tool is large, one-pass profile machining is required or standard inserts cannot reproduce the component geometry.
Can brazed carbide tools be reground?
Many brazed carbide tools can be reground when sufficient carbide remains. Regrinding must preserve the cutting profile, relief, diameter, runout and dimensional relationship between cutting features.
Can solid carbide tools be reground and recoated?
Many solid carbide tools can be reground and recoated. The remaining diameter, flute geometry, profile tolerance and application requirements must be checked before reconditioning.
Are indexable inserts suitable for custom profiles?
They may be suitable when a standard insert shape matches the profile. Special profile inserts are also possible, but they may require custom manufacturing, dedicated pockets and higher minimum quantities.
Can Aoshiji recommend the tool structure from a component drawing?
Yes. Provide the component drawing, workpiece material, tolerance, machine information, production volume and current machining problem for an engineering review.
Do you support cutting-tool distributors?
Yes. Aoshiji supports distributors and industrial tooling suppliers with drawing review, technical evaluation, custom-tool production and revision-controlled repeat orders.
Brazed carbide construction is often practical because a steel body can support large dimensions while carbide is used only at the cutting edges. The final decision depends on the profile, cutting load, tolerance and machine setup.
Solid carbide is commonly preferred because it provides a compact, stiff and accurately ground cutting body.
There is no universal answer. Cost per part depends on tool cost, tool life, changeover time, regrinding or insert cost, scrap rate, cycle time and production volume.
No. Coating is one part of the cutting system. Tool construction, carbide grade, geometry, support, edge preparation, machine stability and coolant condition must be evaluated together.
20 Related Technical and Product Pages
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.
Overview of custom carbide-tipped cutting tools for turning, drilling, reaming, milling, counterboring and profile machining.
21 Request an Engineering Review
Brazed carbide, solid carbide and indexable tools are not interchangeable solutions.
Brazed carbide construction is often suitable for large tools, custom forms, special profiles and applications where carbide is required only at the cutting edges.
Solid carbide construction is often suitable for compact, high-stiffness and precision rotary tools.
Indexable tooling is often suitable for standard, high-volume operations requiring rapid cutting-edge replacement.
The correct tool structure must be selected from the complete machining process, not only from tool price or material name.
Send your component drawing, existing tool drawing and machining conditions to Aoshiji® Custom Tool for an engineering evaluation.
Email: [email protected]
