Standard Steel Conrod Kits | Budget motorcycles, routine maintenance | Steel connecting rod (ASTM A36, 400 MPa yield strength), basic needle bearings | Cost-effective, widely compatible (▲ 15% cheaper than advanced kits) | Heavier (▲ 20% more mass than aluminum), limited thermal resistance (max 250°C) |
Our Base Model | Mid-range motorcycles (e.g., Honda CRM250) | High-strength steel (ASTM A533, 500 MPa yield), polished finish (ISO 305), copper washers (ASTM B117 corrosion resistance) | ▲ 25% stronger than industry standard; corrosion-resistant washers | Still heavier than aluminum, thermal limit 300°C (▲ +50°C vs standard) |
High-Performance Aluminum Kits | Racing bikes, high-RPM engines | Aluminum alloy 6061-T6 (250 MPa yield), lightweight design (ISO 305), steel bearings | ▲ 30% lighter than steel; optimized for high RPM (up to 12,000 RPM) | ▲ 2x cost of steel kits; thermal limit 350°C (▲ -50°C vs ceramic-coated steel) |
Our Advanced Model | High-performance engines (e.g., KAEG 249cc) | Aluminum rod + copper bearings (thermal conductivity: 380 W/m·K, ASTM F49), ISO 305 finish | ▲ Combines light weight (▲ 28% lighter than steel) + superior heat dissipation | Premium price (▲ 40% cost vs base); niche compatibility |
Copper-Bearing Kits | High-friction environments (e.g., off-road) | Copper needle bearings (ASTM F49), thermal conductivity 380 W/m·K, steel rod (ISO 305) | ▲ 40% lower friction loss; heat tolerance up to 400°C (▲ +150°C vs steel) | Higher cost (▲ 3x standard kits); heavier than aluminum-only designs |
Premium Ceramic-Coated Kits | Extreme-duty engines (e.g., industrial) | Ceramic-coated steel (ISO 1450), thermal resistance up to 500°C, dual bearings | ▲ Withstands extreme temperatures (▲ +200°C vs standard); ultra-durable | ▲ 5x cost of steel kits; complex installation; weight penalty (▲ 10% heavier) |