MSE PRO 2-Micron-Thick Platinum-Coated Titanium Electrode

MSE PRO™ 2-Micron-Thick Platinum-Coated Titanium Electrode

Description

The 2-micron-thick platinum-coated titanium electrode is a highly efficient electrolysis electrode widely utilized in industries such as hydrogen production. It employs a titanium-based platinum plating technique, offering features like a compact structure and an appealing silver-white appearance.

One of its significant applications is as a hydrogen electrode, leveraging its permeability and electrolytic aperture. By incorporating a platinum metal coating on the outer surface, it effectively prevents oxidation and extends the product's lifespan.

High-performance coating: The titanium-based platinum plating process deposits a layer of pure platinum on the titanium surface, resulting in a firmly bonded and stable platinum layer. This enables the electrode to handle high current density with low voltage, maintaining its shape and stability.

Precise control parameters: The electrode boasts a platinum layer thickness of 2 microns, falling within the standard range of 0.5-10 microns. Additionally, it operates efficiently at temperatures below 80°C and pH values ranging from 1 to 12, making it suitable for various process environments.

Versatile applications: This electrode offers flexibility to meet diverse requirements. It can be employed in seawater treatment, gold-potassium-citrate electroplating, horizontal plating, pulse plating, acid-alkaline electroplating solutions, water treatment, ionized water machines, electrolytic smelting, electrolytic hydrogen production, and more.

Lightweight design: Utilizing a titanium base material, the electrode is lightweight, particularly when utilizing titanium mesh anodes. This feature aids in reducing equipment load and improving operational convenience.

Specification

Application: Hydrogen industry, Electroplating industry, Water treatment, Electrolytic smelting

The size of this product can be customized. Please contact us with any specific customization requirements.