LINQCELL GDL2200 | 2.2mm Carbon Plate
- 2.2mm - 2200um - 86.6mil
- Ideal for electrolyzers
- Graphitized Carbon Plate
Product Description
LINQCELL GDL2200 is a graphitized carbon plate that boasts a through-plane resistance of less than 17 mΩcm2. With a thickness of 2.2mm ±0.2mm (@50 kpa), it delivers optimal performance in fuel cells and electrolyzers as an electrode, gas diffusion layer, or porous transport layer.
One of the unique features of LINQCELL GDL2200 is its density of ±0.6-0.75 g/cm3 and through-plane resistivity of 110mΩ-cm, which results in a voltage loss of only 35mV. This ensures reliable and efficient performance in high-performance fuel cells and electrolyzers.
In addition, its high compressibility and porosity make it an excellent choice for optimal reactant transport to the catalyst layer, ensuring the best possible performance in various fuel cell applications. Its low electrical resistance, high thermal conductivity, and durability also make it ideal for use as a Porous Transport Layer (PTL) in PEM electrolyzers, PEMFCs, and PAFCs.
LINQCELL GDL2200 is a high-performance carbon paper that offers unique features and specifications suitable for fuel cells and electrolyzers. Its low electrical resistance, high thermal conductivity, compressibility, and porosity make it an ideal choice for various fuel cell and electrolyzer applications.
Technical Specifications
General Properties | |
Basis Weight Basis Weight Basis weight refers to the weight measured in pounds off 500 sheets of paper in that paper’s basic sheet size. | 1550 g/m2 |
Density (g) | 0.6 g/cm3 |
Total Thickness Total Thickness Total thickness is taking into account all the films, coatings, adhesives, release liners and special layers and is the maximum thickness of a film or tape. | 2.2 μm |
Electrical Properties | |
Through Plane Resistivity Through Plane Resistivity Resistance of the amount of current through a material | 110 mΩcm |
TP Resistance TP Resistance Opposition to the flow of electric current. | 17 mΩcm2 |
Voltage loss | 35 mV |