The Ru-Ir Titanium Electrode for Chlorine & Oxygen is a high-performance electrochemical anode designed for chlorine evolution in chlor-alkali processes and oxygen evolution in PEM water electrolysis. Featuring a Grade 1 titanium substrate with optimized ruthenium-iridium oxide coating, it delivers >95% current efficiency for chlorine production and maintains <300mV overpotential for oxygen evolution, while offering exceptional corrosion resistance in harsh environments (pH 1-14, high chloride).

This electrode uniquely maintains optimal performance for both chlorine generation from brine and oxygen production in acidic PEM conditions. The precisely balanced Ru-Ir coating ensures stable catalytic activity across these distinct electrochemical processes, serving as a critical component bridging conventional chemical manufacturing and green hydrogen production.

Products Specifications

Material: Titanium

Hole size: 3*6mm

Screen size: 40*90mm

Thickness: 1.0mm

Coating:Ruthenium-Iridium Oxide

Process: Expanding

Products Features

Ru-Ir Titanium Electrode for Chlorine Oxygen

High Durability: The combination of Ruthenium (Ru) and Iridium (Ir) with titanium offers exceptional resistance to corrosion, even in harsh chemical environments, making it ideal for use in chlorine and oxygen generation processes.

Superior Conductivity: The electrode's conductive properties ensure efficient electrochemical reactions, improving the overall efficiency of chlorine and oxygen production.

Long Service Life: The alloy's high stability and resistance to wear and tear ensure a long service life, reducing the need for frequent replacements and lowering maintenance costs.

Enhanced Electrochemical Performance: The Ru-Ir coating on the titanium substrate enhances the electrode's performance, providing better efficiency in electrolysis processes.

Wide Operating Temperature Range: Suitable for both high and low temperatures, ensuring reliable performance across a range of industrial conditions.

Eco-friendly: The electrode's high performance and durability contribute to more efficient chlorine and oxygen production, minimizing energy consumption and reducing environmental impact.

Product Applications

Chlor-Alkali Industry: The Ru-Ir Titanium Electrode for Chlorine & Oxygen is used in chlor-alkali processes to efficiently generate chlorine from brine. Its exceptional corrosion resistance and high conductivity make it ideal for electrolysis cells, ensuring reliable performance and energy efficiency.

Water Treatment and Desalination: In water treatment, the Ru-Ir Titanium Electrode for Chlorine & Oxygen generates chlorine for disinfecting municipal water or industrial applications. It is also used in desalination plants for treating seawater or brine, improving water quality while maintaining high efficiency in harsh environments.

Green Hydrogen Production: The Ru-Ir Titanium Electrode for Chlorine & Oxygen is essential in PEM water electrolysis systems, facilitating the production of green hydrogen. It supports efficient water splitting into hydrogen and oxygen, contributing to sustainable hydrogen generation for energy storage and fuel cells.

Electrochemical Manufacturing: The Ru-Ir Titanium Electrode for Chlorine & Oxygen is used in electrochemical manufacturing processes, such as chlorine production and electrochemical metal reduction. Its ability to withstand high chloride concentrations and extreme pH levels ensures consistent performance in a variety of industrial applications.

Renewable Energy and Energy Storage: In energy storage systems like flow batteries, the Ru-Ir Titanium Electrode for Chlorine & Oxygen aids in both charge and discharge cycles by reducing overpotentials and improving overall cell efficiency, thus enhancing the performance and lifespan of these systems.

Electrochemical CO2 Reduction: The Ru-Ir Titanium Electrode for Chlorine & Oxygen plays a role in CO2 reduction technologies, facilitating the efficient electrochemical reactions required for carbon dioxide conversion in environmentally sustainable processes.