A titanium anode for the electrocatalytic production of zinc sulfide is an electrochemical anode material composed of a substrate made of industrial-grade pure titanium or a titanium alloy, with a surface coated with **highly active catalytic coatings (such as MMO or functional oxides)**. It is specifically designed for use in the electrocatalytic reaction of zinc sulfide (ZnS) and related electrolysis processes.
During the preparation or conversion of zinc sulfide, electrocatalytic reactions place high demands on the stability and catalytic performance of the anode material. Thanks to its excellent corrosion resistance and electrocatalytic activity, the titanium anode can operate stably in complex electrolytic environments, making it a crucial component of modern electrochemical processes.
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In the electrocatalytic zinc sulfide process, the titanium anode primarily participates in the anodic oxidation reaction and provides a stable current environment:
1. Anodic Reaction
Provides the current to drive the electrochemical reaction
Promotes the oxidation of sulfide ions or related substances
Regulates the reaction pathway between Zn²⁺ and S²⁻
2. Cathodic Reactions
Zinc ions participate in reduction or deposition processes
Form zinc sulfide or related products
3. Synergistic Effects
MMO coating enhances electrocatalytic efficiency
Reduces overpotential and energy consumption
Ensures stable and controllable reactions
In short, the titanium anode provides a “stable current + high-efficiency reaction interface” for the entire electrocatalytic process, ensuring the efficient formation of ZnS.
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1. Excellent Corrosion Resistance
Suitable for environments containing sulfides, electrolytes, and acids; resistant to corrosion and failure.
2. High Electrocatalytic Activity
The functional coating effectively promotes electrochemical reactions, enhancing ZnS formation efficiency.
3. Low-Energy-Consumption Operation
Low oxygen evolution overpotential reduces electrical energy loss and improves overall process efficiency.
4. Long Service Life
The titanium substrate is stable, and the coating has strong adhesion, enabling long-term continuous operation.
5. Strong Process Adaptability
Suitable for various concentrations, current densities, and complex electrolytic systems.
Based on coating and process requirements, they are primarily classified as follows:
1. MMO-Coated Titanium Anodes
RuO₂ / IrO₂ system
General-purpose electrocatalytic anodes
High stability, suitable for industrial applications
2. Functional Composite Oxide Anodes
Optimized for sulfide systems
Improved catalytic efficiency
3. High-Corrosion-Resistant Anodes
Suitable for strong acid or high-sulfur environments
Extended service life
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Based on structural form, they can be classified as:
1. Plate Anodes
Commonly used in standard electrolytic cells
Uniform current distribution
2. Mesh Anodes
Increased reaction area
Improved electrolysis efficiency
3. Rod-shaped anodes
Suitable for localized reactions or small-scale equipment
4. Tubular anodes
Suitable for continuous-flow reaction systems
Improved mass transfer efficiency
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1. Preparation of zinc sulfide materials
Preparation of ZnS powders or thin films
Production of semiconductor materials
2. Electrochemical synthesis processes
Preparation of metal sulfides
Development of specialty functional materials
3. Environmental Protection and Resource Recovery
Treatment of zinc-containing wastewater
Recovery of heavy metals
4. Research and Experimental Applications
Electrocatalytic research
Development of new materials
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Electrolytic copper foil manufacturing industry
Hydrometallurgy industry
Sewage treatment industry
Cyclone electrolysis industry
Etching liquid electrolysis recovery industry
Electrolytic sodium hypochlorite industry
When selecting a model, it is recommended to focus on the following factors:
1. Properties of the Electrolysis System
Whether it contains sulfides (S²⁻)
pH value and corrosiveness
2. Current Density Requirements
High current density: Select a highly stable MMO coating
Fine-scale reactions: Select a coating with high catalytic activity
3. Anode Structure and Dimensions
Select plate or mesh type based on reactor design
Ensure uniform current distribution
4. Coating Type and Thickness
Improve corrosion resistance and catalytic efficiency
Extend service life
5. Service Life and Cost
Prioritize high-durability models for long-term operation
Balance investment costs with operational efficiency
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