Titanium anode
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Ru-Ir Coated Titanium Anode Tube MMO Electrode for Electrophoretic Coating
Ru-IR Mmo Spray Coating Titanium Anode for on-Site Sodium Hypochlorite Generator
Superior Quality 1200*900mm Titanium Anodes for Industrial Use
Mmo Coated Titanium Anodes (DSA) for Salt Chlorinators, Titanium Plate, Electrode
Gr2 Titanium Clad Copper Pipe/Tube Anode for Electroplating
PT / IR / Ru Coated Titanium Anode/Mmo Coating Titanium Sheets Anode
Central Connection Design Cell Pre-Wired Tubular Mmo Titanium Anode for Deep Well Anode Bed
Mmo Tubular Titanium Anode for Cathodic Protection
Mmo Titanium Anode for Electrolytic Production of Chlorine Dioxide
Titanium Anode for Industrial Wastewater Treatment
Deep Well Mmo Titanium Anode for Pipeline Cathodic Protection
High-Porosity Powder-Sintered-Titanium Reliably Serves as Anode Ptl for Pem Water Electrolyzer Stacks
Oxidation-Stable Powder-Sintered-Titanium Excellently Endures High Anode Potential in We-Pem Devices
Gr. 1 Grade 1 Ruo2 Iro2 Coated Titanium Anode for Seawater Electrolysis
Micro Hole 1*2mm 0.5*0.8mm Ta1 Ta2 Diamond Expanded Titanium Anode
Robust Titanium Plate Anode for Sodium Hypochlorite Generator Use
Kig Custom IR-Ta Mmo and IR-Ta-Ru Mmo Coated Titanium Anode Used in Soil and Fresh Water and Salt Water
Generator Hho Titanium Anode for Hydrogen Fuel Cell
Platinum Titanium Mesh Anode for Precision Electroforming and Electroplating Industry
Kig Cathodic Protection Used Mmo Titanium Tube Anode
Titanium Tube-Type Anode for Cathodic Protection, Mmo Iridium-Tantalum Coating, Diameter 25 mm, Customizable
Ru-IR-Ti Lead Dioxide Coated Titanium Anode for Water Electrolysis
Electroplating Dsa Titanium Anodes Mmo Titanium Wire Anode
Sourcing guidance for Titanium Anode
What are the key technical specifications to consider when selecting a Titanium Anode?
Buyers must prioritize the coating type (MMO, Platinum, or Lead Dioxide) based on the specific electrochemical application. For water treatment or chlor-alkali industries, Ruthenium-Iridium (Ru-Ir) coatings are standard, while Iridium-Tantalum (Ir-Ta) is preferred for oxygen evolution in acidic environments. Ensure the substrate is Grade 1 or Grade 2 pure titanium to guarantee maximum corrosion resistance and electrical conductivity. Additionally, specify the coating thickness (measured in grams per square meter), as this directly determines the service life and catalytic activity of the anode.
How do I verify the quality and durability of Titanium Anodes from a supplier?
Request an Accelerated Life Test (ALT) report to verify the expected operational lifespan under high current density. Quality suppliers should provide Scanning Electron Microscope (SEM) images to show coating morphology and Energy Dispersive X-ray Spectroscopy (EDX) reports to confirm the precious metal composition. Ensure the supplier follows ISO 9001 quality management systems and check for adhesion strength tests (such as the tape test or ultrasonic cleaning test) to prevent coating delamination during operation.
What compliance standards are relevant for Titanium Anodes in international trade?
For industrial applications, products should align with ASTM B265 (Standard Specification for Titanium and Titanium Alloy Strip, Sheet, and Plate). If the anodes are used in drinking water electrolysis or food-grade applications, they must meet NSF/ANSI 61 standards or REACH/RoHS compliance to ensure no harmful substances leach into the medium. Always verify the Certificate of Origin and Mill Test Certificate (MTC) to trace the raw material back to the titanium sponge source.
How does the physical design impact the performance of the anode?
The geometry—whether mesh, plate, rod, or tubular—should be optimized for the current distribution and gas release efficiency. A mesh structure is often preferred for high-flow systems to increase the surface area and reduce the overpotential, leading to significant energy savings. Ensure the welding points (TIG welding) are reinforced with titanium filler to prevent structural failure in electrolytic cells.
Cross-Border Procurement Risks and Strategies for Titanium Anodes
What are the primary risks when sourcing Titanium Anodes internationally?
The most significant risk is 'under-coating', where suppliers reduce the amount of precious metals (like Iridium or Platinum) to lower costs, leading to premature anode failure. To mitigate this, use third-party inspection services to conduct X-ray fluorescence (XRF) testing before shipment. Another risk is transaction insecurity; always utilize Secure Payment services on Made-in-China.com to ensure funds are only released upon confirmation of receipt and quality.
How should I negotiate pricing and terms with Titanium Anode manufacturers?
Since titanium and precious metals are commodities, prices fluctuate. Negotiate a formula-based pricing model linked to the current market rates of Titanium sponge and Iridium/Ruthenium prices. For bulk orders, aim for a 10-15% discount on the fabrication cost, but be wary of prices significantly below market value, as this often indicates recycled titanium substrate or inferior coating quality.
What are the best practices for shipping and logistics for these specialized components?
Titanium anodes are sensitive to surface contamination and physical impact. Insist on vacuum packaging or lint-free wrapping followed by custom wooden crates to prevent scratches on the MMO coating. For international shipping, FOB (Free On Board) is recommended for experienced buyers to control freight costs, while DDP (Delivered Duty Paid) is better for those unfamiliar with local customs clearance for chemical/industrial equipment.
How can I ensure alignment with international trade policies and tariffs?
Check the HS Code (typically 8108.90 or 8543.90) against your country's tariff schedule to account for anti-dumping duties or trade barriers. Ensure the supplier provides a detailed packing list and commercial invoice that matches the technical description to avoid customs delays or seizures during the import process.





























