Cutting tools
Premium Cutting Tools for Industrial and Professional Applications
Our high-performance cutting tools are engineered to deliver precision, durability and efficiency across various applications. With advanced materials and innovative designs, these tools meet the demands of modern manufacturing environments.
Product Specifications
- Material: High-speed steel (HSS), Carbide, Cobalt alloys
- Hardness: 62-65 HRC (Rockwell Hardness C scale)
- Coating Options: TiN, TiCN, TiAlN, Diamond coatings
- Temperature Resistance: Up to 1200°F (650°C)
- Compatibility: CNC machines, conventional mills, lathes
| Product Series | Diameter Range | Flute Count | Cutting Speed (SFM) | Feed Rate (IPR) |
|---|---|---|---|---|
| End Mills (Standard) | 1/8" - 1" | 2-6 flutes | 200-800 | 0.001-0.010 |
| Drill Bits (Jobber) | 1/16" - 1/2" | N/A | 100-400 | 0.003-0.015 |
| Indexable Inserts | 1/4" - 1-1/4" | N/A | 300-1200 | 0.005-0.030 |
Cutting Tools FAQ
What are the key factors in selecting the right cutting tools for my application?
The selection depends on multiple factors: material being cut (aluminum, steel, composites), required precision, production volume, machine capability, and budget. Harder materials require carbide tools with appropriate coatings, while high-speed steel may suffice for softer materials. Consider tool geometry, coating type, and coolant requirements based on your specific application.
How often should I replace or sharpen my cutting tools?
Inspection intervals vary by usage but generally: check for wear after 4-8 hours of continuous use in normal conditions. Signs of wear include chipping edges, reduced cutting performance, unusual noises, or poor surface finish. Most cutting tools maintain optimal performance for 50-200 hours of actual cutting time before requiring replacement or reconditioning.
What maintenance practices extend the life of cutting tools?
Implement these best practices: proper tool storage (dry, organized), correct installation (secure clamping, proper torque), regular cleaning (remove chips and residue), appropriate coolant/lubrication, and proper speed/feed settings. Never use damaged tools and always follow manufacturer's recommendations for specific tool types. Regular tool reconditioning by professional services can extend tool life by 30-50%.
Additional Product Features
- Precision ground cutting edges for superior finish
- Optimized chip evacuation design
- Anti-vibration geometries for stable cutting
- Custom coating options available
- Made to ISO 9001 quality standards
Our cutting tools portfolio includes specialized solutions for aerospace, automotive, medical device manufacturing, and general machining applications. Each product undergoes rigorous quality control to ensure consistent performance and dimensional accuracy.
| Application | Recommended Tool Type | Optimal Coating | Expected Tool Life |
|---|---|---|---|
| Aluminum Machining | 3-flute end mills | Uncoated or ZrN | 80-150 hours |
| Stainless Steel | Variable helix end mills | TiAlN or AlCrN | 40-80 hours |
| High-Temp Alloys | Solid carbide tools | Diamond coating | 20-50 hours |
More Cutting Tools FAQ
What's the difference between positive and negative rake angles in cutting tools?
Positive rake angles (common in aluminum cutting) reduce cutting forces and produce smoother finishes but may sacrifice edge strength. Negative rake angles (typical for hardened steels) increase tool strength and heat dissipation but require more machine power. The choice depends on material hardness and desired surface finish.
How does tool coating affect cutting performance?
Coatings provide multiple benefits: TiN increases hardness and lubricity, TiAlN offers superior heat resistance, diamond coatings excel in abrasive materials, while ZrN prevents aluminum buildup. Coatings can extend tool life 3-5 times, allow higher cutting speeds by 20-50%, and reduce friction for better chip flow.
What safety precautions should I follow when using cutting tools?
Always wear ANSI-approved safety glasses, secure workpieces properly, use appropriate machine guards, select correct RPM settings, and never attempt to stop a rotating tool by hand. Regularly inspect tools for damage before use, ensure proper chip collection systems, and follow all machine manufacturer safety guidelines. Proper training on specific tool types is essential for safe operation.