Nickel Fiber Sintered Felt with High Porosity, Good electrical and thermal conductivity

 

As a high-performance porous material, Nickel fiber sintered felt is widely used in various preparation methods in the process of hydrogen production by water electrolysis. Its unique structure and material properties significantly improve the efficiency of hydrogen production and the stability of equipment.

Advantages

  1. Nickel fiber sintered felt has a three-dimensional porous structure. Porosity is more than 80%, Nikel fiber sintered felt for hydrogen production by water electrolysiswhich enhances the efficiency of catalytic reaction
  2. Rapid electrolyte penetration and hydrogen/oxygen bubbles can escape quickly, reducing concentration polarization
  3. Uniform current distribution: avoid local overheating or current concentration, and improve equipment safety
  4. Good electrical and thermal conductivity: With high porosity, Nickel fiber sintered felt can transfer electricity and thermal conductivity at high efficiency. Nickel sintered felt has become the first choice for efficient energy transmission.
  5. High mechanical strength: After the sintering process, the Nickel felt has high mechanical strength. It can withstand vibration and pressure fluctuations during electrolysis, with more than 100,000 hours in high-voltage electrolyzers.
  6. Strong corrosion resistance and high temperature resistance: Strong corrosion resistance, can operate normally in high-temperature environment
  7. High specific surface area: The specific surface area of sintered felt is much higher than that of traditional nickel mesh, and can be directly used as a catalyst carrier, reducing the use of precious metals and reducing costs

Specifications

  1. Material: Nickel 200, Nickel 201, N4, N6, N8 etc
  2. Purity: 99%
  3. Thickness: 0.1mm, 0.25mm, 0.4mm, 0.6mm, 0.8mm, 1mm etc
  4. Porosity: 50%-85%
  5. Size: 100*100mm, 200x200mm, 200x300mm, 500x500mm, 1500*1200mm, Customized

Application

The Nickel fiber sintered felt is mainly used in alkaline water electrolysis (AWE) and proton exchange membrane water electrolysis (PEMEC).

  1. Electrode material or catalyst carrier.
  2. Gas diffusion layer
  3. Diaphragm or support structure
  4. Fuel cell