Silicon Content | High-temperature casting | Industry Standard: 12% Si (ASTM A788) | Our Base: 15% Si (▲3%) | Our Advanced: 18% Si (▲6% over industry) |
| | | Enhances alloy strength and fluidity in molten state (ASTM A788 compliant) | Higher Si increases material cost by ~20% compared to industry standards |
Magnesium Content | Structural components (e.g., engine parts) | Industry Standard: 1.5% Mg (ASTM A240) | Our Base: 3% Mg (▲1.5%) | Our Advanced: 4.5% Mg (▲3% over base) |
| | | Improves tensile strength (+20%) and wear resistance (per ISO 6892) | Excess Mg may induce brittleness in low-temperature applications |
Ferro Alloy Purity | Complex alloy manufacturing | Industry Standard: 70% Ferro Silicon | Our Base: 80% Ferro Silicon (▲10%) | Our Advanced: 85% Ferro Silicon (▲15% over base) |
| | | Ensures consistent alloy properties (ASTM A148) for precision casting | Higher purity requires specialized refining, raising production costs by 15% |
Tensile Strength | Heavy machinery parts | Industry Standard: 450 MPa | Our Base: 500 MPa (▲11%) | Our Advanced: 550 MPa (▲22% over industry) |
| | | Withstands extreme mechanical stress (per ISO 6892) for durable components | Higher strength may reduce ductility, requiring thicker material for flexibility |
Corrosion Resistance | Marine/chemical environments | Industry Standard: Passes ASTM B117 200hrs | Our Base: 300hrs (▲50%) | Our Advanced: 500hrs (▲150% over industry) |
| | | Extended service life in corrosive conditions (e.g., offshore pipelines) | Enhanced coatings add 10–15% to final product weight and cost |
Thermal Stability | Foundry operations | Industry Standard: 1200°C | Our Base: 1300°C (▲8%) | Our Advanced: 1400°C (▲17% over industry) |
| | | Maintains structural integrity at higher casting temps (ASTM E1354) | Requires advanced cooling systems, increasing energy consumption by 25% |