It looks like you are using an unsupported browser. You can still place orders by emailing us on info@ossila.com, but you may experience issues browsing our website. Please consider upgrading to a modern browser for better security and an improved browsing experience.


Platinum Mesh as Counter Electrode

Providing high conductivity, chemical inertness and facilitating auxiliary reactions


Specifications | Gallery | Literature | Related Products | Technical Support


With relatively large surface area, platinum mesh has been a good choice of counter electrode (CE) material given its ability to promote oxidation and reduction reactions. As a ubiquitous CE choice, platinum mesh finds applications in fuel cells, membrane electrode assembly (MEA) electrolyzers, gas diffusion electrode (GDE) flow cells, and many other electrochemical technologies.

Being chemically inert, platinum mesh electrode has also been extensively employed in dye-sensitized solar cells (DSSCs), bulk electrolysis and electrosynthesis, facilitating high-current synthetic or analytical redox transformations without contaminating the electrolyte. Platinum mesh electrode acts as a stable current sink during potentiodynamic polarization (PDP) and electrochemical impedance spectroscopy (EIS) studies. Due to its high catalytic activity and stability, it has also been used in hydrogen and oxygen evolution or reduction reactions.

Other shapes and sizes may also available, please contact us for further information.

High Quality

High Quality Materials

Highly Inert

Suitable for a wide range of EC experiments

High Conductivity

For fast electron transfer

Expert Support

From in-house scientists & our
customer care team

Specifications


Platinum Mesh Dimension Diagram
Platinum Mesh Dimension Diagram
Plate Thickness 0.3 mm
Plate Dimensions 15 x 15 mm
Mesh Material Platinum

Platinum Mesh
Platinum Mesh Plate

Literature and Reviews


  1. C. Williams et al. (2025), Implementing hydrogen oxidation reaction on Pt for controlling counter electrode processes, Electrochem. Commun., 175, 107917; DOI: 10.1016/j.elecom.2025.107917.
  2. S. Nösberger et al. (2026), Predicting MEA catalyst layer performance at 120 °C using a pressurized GDE testing platform and machine learning, J. Power Sources, 673, 239720; DOI: 10.1016/j.jpowsour.2026.239720.
  3. M. Hesse et al. (2026), Electrodeposited Ni–S cathodes on stainless steel nonwovens for PGM-free anion exchange membrane water electrolysis at high current density, J. Power Sources, 690, 240732; DOI: 10.1016/j.jpowsour.2026.240732.