APPLICATIONS
Materials Mastered Through Experience
Every material listed below represents hundreds of hours of analysis, optimization, and real-world validation. These aren’t theoretical capabilities they’re proven solutions.
Semiconductor & Electronic Materials
Torlon (PAI)
All Grades Glass transition at 250°C changes everything about cutting dynamics. Standard tools gum below this temperature, burn above it. Our geometry manages this transition for consistent performance across the entire temperature range.
Ultem (PEI)
Available in multiple grades, each with specific challenges. Thermal management through geometric design prevents the stress cracking and buildup that plague standard approaches.
Vespel Family
- SP-1: Unfilled polyimide with unique wear mechanisms
- SP-21: 15% graphite filled requiring different approach than SP-1
- SP-22: 40% graphite filled with extreme abrasion characteristics
- SP-3: 15% molybdenum disulfide filled with distinct cutting behavior
Each grade cuts differently. Each requires specific optimization.
PEEK Variants
- Virgin PEEK: Clean cutting when geometry prevents thermal damage
- 30% Glass-Filled: Directional abrasion managed through edge design
- 30% Carbon-Filled: Less abrasive than glass but different failure modes
- Bearing Grade: Filled variants requiring pristine surface finish
One geometry cannot serve all variants effectively.
Advanced Composites
Carbon Fiber Reinforced Plastics
- Aerospace Grade (PAN-based): Standard geometries cause delamination
- High-Modulus (Pitch-based): Significantly more abrasive, different optimization
- BMI Matrix: Behaves differently than epoxy systems
- Thermoplastic Matrix:Requires thermal management absent in thermoset cutting
Matrix material matters as much as fiber type.
Ceramic Matrix Composites
- C/SiC: Carbon fiber in silicon carbide matrix
- SiC/SiC:Self-reinforced silicon carbide
- Oxide/Oxide: Alumina-based systems with unique fracture modes
Each system fails differently. Each requires targeted solutions.
Technical Ceramics
Semiconductor Substrates
- Aluminum Nitride (AlN): Thermal shock management critical
- Alumina (Al2O3): Various purities require different approaches
- BeO: Toxicity demands perfect dust control through chip management
- Silicon Carbide: Single crystal vs. sintered cut completely differently
Contamination control often matters more than cutting speed.
Advanced Ceramics
- Zirconia (Various): Transformation toughening complicates machining
- Silicon Nitride: Different grades, different challenges
- Machineable Ceramics: "Machinable" doesn't mean "easy"
- Glass-Ceramics: Combine worst aspects of both materials
Standard ceramic experience rarely translates.
Specialty Materials
Nuclear & Aerospace
- Nuclear Graphite: Porosity creates unique dynamics
- Pyrolytic Graphite: Directional properties demand specific approach
- Carbon-Carbon: Used in extreme environments, requires perfect edge quality
- Tungsten Carbide: Yes, diamond can cut carbide—with proper geometry
Critical applications demand uncompromising performance.
Precious & Exotic Metals
- Platinum: Work hardening prevented through geometric optimization
- Iridium: Hardest of platinum group, specific solutions required
- Palladium: Gumming eliminated with proper clearance design
- Gold Alloys: Vary dramatically based on composition
Where material cost exceeds tooling cost by orders of magnitude.
The Common Thread
These materials share one characteristic: they punish incorrect geometry immediately and obviously. Success requires understanding not just what happens when cutting fails, but why. Our tools embody this understanding.
Your Specific Challenge
This list represents a fraction of materials we’ve optimized. If standard tools are failing on your application, material behavior—not tool quality—is likely the issue. We’ve either solved it before or we’ll solve it now.