Ultra Thin 0.1mm Titanium Bipolar Plates For Hydrogen Production From Electrolytic Water & Corrosion Resistance
Sample:
Free Supply
Applications:
Green Hydrogen Plants: Megawatt-scale Alkaline/PEM Electrolyzers For Industrial Decarbonization. Offshore Wind-to-H₂: Saltwater-resistant Plates For Marine Environments. Modular Systems: Thin-profile Stacks For Distributed Energy Storage.
Feature:
Ultra-thin Design (0.1 Mm)
Highlight:
Corrosion Resistant Titanium Bipolar Plates
,
Ultrathin Titanium Bipolar Plates
,
0.1mm Titanium Bipolar Plates Corrosion
Product Description
Ultrathin 0.1mm Titanium Bipolar Plates - Corrosion Resistant For Electrolytic Water Hydrogen Production
Advanced ultra-thin titanium bipolar plates engineered for high-efficiency hydrogen production through water electrolysis with exceptional corrosion resistance.
Key Features & Benefits
Ultra-Thin Design (0.1 mm)
Material savings of 50% compared to conventional 0.2-0.5mm plates. Compatible with high-pressure electrolysis tanks (30 bar) and delivers 20% higher volumetric efficiency.
Extreme Corrosion Resistance
Titanium alloy (TA1) resistant to strong acids and alkalis (pH 14, 1M H₂SO₄). Nano-passivation layer provides metal dissolution rate less than 0.01 mg/cm²/year.
Efficient Conductivity
Laser-etched runner design ensures contact resistance less than 5 mΩ-cm² (1.5 MPa) with electrolysis efficiency greater than 85%.
Lightweight and Durable
Density less than 4.5 g/cm³ (40% lighter than stainless steel). Fatigue resistance exceeds 10⁶ pressure cycles with no micro-crack formation.
Mass Production Economy
Precision stamping with tolerance ±0.01mm. Fully compatible with PEM/AEM/Alkaline electrolysis technologies. Significant life cycle cost reduction with no risk of coating deterioration.
Applications
• Green Hydrogen Plants: Megawatt-scale alkaline/PEM electrolyzers for industrial decarbonization
• Offshore Wind-to-H₂: Saltwater-resistant plates for marine environments
• Modular Systems: Thin-profile stacks for distributed energy storage
Ultra Thin 0.1mm Titanium Bipolar Plates For Hydrogen Production From Electrolytic Water & Corrosion Resistance
Sample:
Free Supply
Applications:
Green Hydrogen Plants: Megawatt-scale Alkaline/PEM Electrolyzers For Industrial Decarbonization. Offshore Wind-to-H₂: Saltwater-resistant Plates For Marine Environments. Modular Systems: Thin-profile Stacks For Distributed Energy Storage.
Feature:
Ultra-thin Design (0.1 Mm)
Minimum Order Quantity:
1PCS
Packaging Details:
wooden pallet
Highlight
Corrosion Resistant Titanium Bipolar Plates
,
Ultrathin Titanium Bipolar Plates
,
0.1mm Titanium Bipolar Plates Corrosion
Product Description
Ultrathin 0.1mm Titanium Bipolar Plates - Corrosion Resistant For Electrolytic Water Hydrogen Production
Advanced ultra-thin titanium bipolar plates engineered for high-efficiency hydrogen production through water electrolysis with exceptional corrosion resistance.
Key Features & Benefits
Ultra-Thin Design (0.1 mm)
Material savings of 50% compared to conventional 0.2-0.5mm plates. Compatible with high-pressure electrolysis tanks (30 bar) and delivers 20% higher volumetric efficiency.
Extreme Corrosion Resistance
Titanium alloy (TA1) resistant to strong acids and alkalis (pH 14, 1M H₂SO₄). Nano-passivation layer provides metal dissolution rate less than 0.01 mg/cm²/year.
Efficient Conductivity
Laser-etched runner design ensures contact resistance less than 5 mΩ-cm² (1.5 MPa) with electrolysis efficiency greater than 85%.
Lightweight and Durable
Density less than 4.5 g/cm³ (40% lighter than stainless steel). Fatigue resistance exceeds 10⁶ pressure cycles with no micro-crack formation.
Mass Production Economy
Precision stamping with tolerance ±0.01mm. Fully compatible with PEM/AEM/Alkaline electrolysis technologies. Significant life cycle cost reduction with no risk of coating deterioration.
Applications
• Green Hydrogen Plants: Megawatt-scale alkaline/PEM electrolyzers for industrial decarbonization
• Offshore Wind-to-H₂: Saltwater-resistant plates for marine environments
• Modular Systems: Thin-profile stacks for distributed energy storage