| Cylindrical Abrasive Wheels | Polishing chrome, industrial grinding | - Aluminum Oxide (60 grit ▲20% finer than industry standard 50 grit, ISO 6344-1) - Stainless Steel Core (EN 13743 compliant) - Open Center (5L/min coolant flow ▲30% vs industry avg 3.8L/min) | ▲20% finer grit for precise polishing Sturdy core for heavy-duty use Efficient cooling reduces overheating | Higher cost ($150–$200) ▲$50 more than disc wheels |
| Disc Abrasive Wheels | Light polishing, edge finishing | - Silicon Carbide (40 grit ▲10% coarser than industry standard 36 grit, ASTM E11) - Fiberglass Core (max RPM 3,500) | Lower cost ($80–$120) Lightweight for handheld use | Limited coolant compatibility Shorter lifespan (▲-15% vs cylindrical wheels) |
| Flap Disc Wheels | Contour surfaces, deburring | - Flexible Backing (ASTM D3359 adhesion ▲30% better than rigid discs) - 3M Grade (multiple grit layers) | ▲40% more flexible for curved surfaces Multi-grit versatility | Fragile ▲25% shorter lifespan than cylindrical wheels |
| Silicon Carbide Wheels | Non-ferrous metals, high-heat applications | - Heat Resistance (400°C ▲50% higher than aluminum oxide) - 50 grit (ASTM E11) | ▲30% faster material removal in heat-sensitive tasks Corrosion-resistant | Brittle ▲50% higher breakage risk than steel-core wheels |
| Diamond Coated Wheels | Hard materials (carbide, ceramics) | - 80 grit Diamond (ISO 1346 ▲40% finer than industry standard 60 grit) - 9 Mohs Hardness (▲2x harder than carbide) | ▲50% longer lifespan ▲10x faster cutting on hard materials | Expensive ($300–$500) Not suitable for soft metals |
| Belt Sanding Belts | Large surface finishing | - 50m/min Feed Rate (ISO 13544 ▲20% faster than disc wheels) - 45 grit (ASTM E11) | ▲3x higher production volume for large surfaces Low cost ($50–$80) | ▲25% less precision ▲Higher vibration risk |