Diamond TRIZ Cases
- Polar Nanomaterial Rubber Tread for Tire Grip on Ice
Nanomaterials with high polar group content raise tread roughness and water-film viscosity, helping tires maintain traction on icy roads.
- Diamond-on-GaN Seeded Structure for Low-Stress Film Adhesion
Micro-structured seeding with diamond micro- and nano-seeds improves diamond-on-GaN adhesion, lowers residual stress, and enables smooth films.
- Diamond Cutting Edge Graphite Gradient for Dry Wear Resistance
Laser-generated graphite from the cutting edge surface to 1 μm depth sustains dry-cut lubricity and wear resistance in diamond tools.
- Binder-Free Polycrystalline Diamond for High-Speed Machining
Ultra-high-pressure phase conversion creates binder-free polycrystalline diamond with high thermal conductivity, hardness, and wear resistance for machining.
- Binder-Free Polycrystalline Diamond With High Dislocation Density
Direct sintering of nanoscale diamond particles avoids binder-related strength loss while improving hardness, toughness, and heat resistance.
- Binder-Free Polycrystalline Diamond for High-Speed Machining Wear Resistance
A >99 vol% binder-free diamond microstructure improves thermal conductivity, hardness, and wear resistance for high-speed machining.
- Carbon Transfer Film Composition for Low-Friction Wear Suppression
A thin low-zirconium carbon transfer film uses nanodiamond-derived sp2/sp3 carbon to improve tribofilm adhesion, reduce friction, and suppress wear.