Our Stainless Steel-Titanium Alloy Mesh represents a pinnacle of hybrid materials engineering, meticulously combining the corrosion resistance of Grade 316L stainless steel with the exceptional strength-to-weight ratio of Ti-6Al-4V titanium alloy. This advanced composite design is engineered for the most demanding industrial environments, offering a synergistic blend of mechanical properties that ensures unmatched durability in aerospace, medical, and chemical processing applications.
By integrating innovative multi-layer twill weaves and precision manufacturing techniques such as Laser Beam Welding (LBW) and Electron Beam Melting (EBM), we provide filtration and structural solutions with aperture precision ranging from sub-micron levels to 25mm. Whether utilized for sterile pharmaceutical filtration, cryogenic fuel systems, or biocompatible medical implants, our alloy mesh delivers superior performance where standard metallic filters fail.
| Material Composition | Grade 316L (Cr, Ni, Mo) & Ti-6Al-4V (Al, V) | Tensile Strength | 900 – 1,200 MPa |
|---|---|---|---|
| Elongation Rate | 15% – 20% | Pore Size Range | 0.5 µm – 25 mm |
| Thermal Stability | Stable up to 800°C (ASTM E292) | Surface Roughness | Ra ≤ 0.1 µm (Electropolished) |
| Weight Reduction | 40% lighter than pure steel mesh | Load Capacity | Up to 50 kN/m² |
| Compliance | FDA 510(k), ASME BPVC, NACE MR0175 | Salt Fog Resistance | 10,000+ Hours (ASTM B117) |
Full resistance to HCl (pH 1), H₂S-rich environments, and high-salinity brine per NACE MR0175 standards.
3x longer cyclic loading life than standard stainless steel, verified by ASTM E466 at 10⁷ cycles.
Zero nickel leaching (ASTM F138/F139) makes it ideal for cranial implants and orthopedic scaffolds.
Laser-etched and 3D-printed structures ensuring ±0.3% elemental accuracy for critical components.
Maintains structural integrity in exhaust gas systems and furnaces up to 800°C.
Options include plasma-sprayed alumina coatings for abrasion resistance or electropolishing for sterility.
XRD Composition Verification ensures precise elemental ratios (Cr, Mo, Ti) within ±0.3%.
Utilizing Laser Beam Welding (LBW) for ultra-narrow heat-affected zones in cryogenic use.
Rigorous Metallographic Analysis (ASTM E3) confirms homogeneous alloy distribution.
Cyclic Corrosion Testing based on GM 9540P standards for automotive and offshore rig use.
Strict adherence to FDA 510(k) for implants and ASME BPVC for chemical reactors.
Additive Manufacturing (EBM) for complex vascular stents and heat exchanger cores.
| Performance Metric | Standard Steel Mesh | Hybrid Ti-Steel Mesh |
|---|---|---|
| Service Lifespan | Baseline | 300% Increase (Fatigue Life) |
| Weight Impact | 100% (Heavy) | 60% (High Strength-to-Weight) |
| Corrosion Rate | Moderate (Pitting risk) | Near-Zero (Salt Fog 10k+ hrs) |
| Thermal Limit | Standard Industrial | Ultra-High (Up to 800°C) |
| Maintenance Cost | Frequent Replacement | Low Frequency / High Reliability |
It combines the chemical stability of 316L stainless steel with the strength and lightness of Ti-6Al-4V, offering 40% less weight and significantly higher fatigue resistance.
Yes, it is biocompatible with zero nickel leaching (ASTM F138/F139) and is FDA 510(k) certified for applications like cranial and dental bone graft meshes.
The mesh remains stable up to 800°C, making it ideal for jet engine acoustic liners and thermal processing furnaces (ASTM E292).
Absolutely. We offer multi-layer twill weaves capable of ultra-fine filtration between 0.5 to 10 µm for pharmaceutical and semiconductor processes.
Our mesh is NACE MR0175 compliant and tested under ASTM B117 (salt fog) for over 10,000 hours to ensure reliability in offshore and marine environments.
We utilize Additive Manufacturing (Electron Beam Melting - EBM) for 3D-printed mesh structures, ideal for custom vascular stents or complex heat exchangers.
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