Why Do Titanium Anode Prices Vary So Much? The Ultimate Guide ...

As a leading titanium anode manufacturer with over 30 years of expertise, we understand your concern:

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“Why do prices for ‘similar’ titanium anodes vary so much between suppliers?”

At first glance, many anodes seem identical—same size, similar coatings, and comparable specifications. However, hidden factors dramatically impact long-term costs, durability, and performance.

This 8,000-word guide unveils the four-layer cost pyramid behind titanium anodes, real-world case studies, and application-specific insights. We’ll show you how to make cost-effective procurement decisions while avoiding common industry traps.

Chapter 1: The Four-Layer Cost Pyramid of Titanium Anode Pricing

Titanium anode prices vary significantly due to multiple hidden factors beyond just the material cost. We categorize these into four key cost layers:

1.1 Layer 1: Raw Material Costs (40-65% of Total Cost)

The type of titanium substrate and coating materials used significantly affect anode performance and pricing.

1.1.1 The Purity Trade-Off in Titanium Substrates

Titanium grades determine durability, corrosion resistance, and price.

• Military-grade TA1 titanium (≥99.6% purity)

  • Cost: ¥48/kg
  • Grain size standard: ASTM 7
  • Tensile strength: ≥240 MPa
  • Service life: 8+ years in 3.5% NaCl solution
  • Applications: High-end offshore platforms, marine structures, and critical industrial systems

• Industrial-grade Gr2 titanium (99.2-99.5% purity)

  • Cost: 18% cheaper than TA1
  • Chloride resistance: 50% lower
  • Service life: 60% of TA1 in seawater applications

???? Case Study: A project in Southeast Asia suffered cracked anodes within 3 months due to using recycled titanium. SEM analysis found 0.35% oxygen content, far exceeding the 0.18% standard, leading to stress corrosion cracking. Selecting TA1 titanium could have prevented this failure.

1.1.2 The Hidden Costs of Precious Metal Coatings

Titanium anodes rely on precious metal oxide coatings for conductivity and longevity. The ratio and quality of these coatings significantly impact the cost.

• Premium Ru-Ir Coating (7:3 ratio)

  • Iridium cost: ¥1,500/g
  • Typical coating: ≥3g iridium per anode
  • 20-year cost: ¥120,000
  • Chlorine evolution efficiency: 98%
  • Accelerated lifespan (85°C, 3A/dm²): 3,200 hours

• Low-cost Ru-Ti Coating (9:1 ratio)

  • Iridium content: ≤0.5g per anode
  • Initial cost savings: 70%
  • 20-year cost: ¥270,000 (more frequent replacements required)
  • Chlorine evolution efficiency: 82%
  • Accelerated lifespan: 800 hours (4× shorter than Ru-Ir)

???? Key Insight: While Ru-Ti coatings offer lower upfront costs, their shorter lifespan and higher replacement frequency lead to significantly higher total costs over time.

1.2 Layer 2: Manufacturing Process Costs (20-35% of Total Cost)

1.2.1 The Coating Preparation Battle: Plasma Spraying vs. Brush Coating

Plasma Spraying (APS)

• Equipment investment: ¥18 million (German GTV machines)
• Advantages:
  • Coating porosity <2%
  • Bonding strength ≥15 MPa
• Cost per anode (amortized): ¥35

Brush Coating (Manual Application)

• Equipment investment: ¥200,000
• Disadvantages:
  • Thickness deviation ±30%
  • Porosity >15%
• Hidden Cost: A wastewater treatment plant suffered ¥800,000 per day in downtime due to coating delamination caused by brush-applied coatings.

???? Lesson: While manual coatings are cheaper, they often lead to premature failure and costly maintenance.

1.2.2 The Fine Balance of Heat Treatment Processes

Vacuum Sintering (Cost: ¥8 per anode)

• Temperature control: 750°C ± 5°C, held for 2 hours
• Effect: 50-80nm oxide crystal size ensures stable conductivity

Atmospheric Sintering (Cost: ¥3 per anode)

• Temperature variation: ±30°C
• Effect: 5% increased oxidation loss
• Case Study: A marine platform saw a 40% increase in electrical resistance after one year due to poor sintering control.

???? Key Takeaway: Vacuum sintering improves long-term anode efficiency, justifying the slightly higher production cost.

1.3 Layer 3: Quality Assurance Costs (10-25% of Total Cost)

1.3.1 The Financial Impact of Certification Standards

Certification Acquisition Cost Annual Maintenance Cost Price Premium Potential ISO ¥50,000 ¥15,000 +8% NACE SP ¥180,000 ¥30,000 +15% DNV GL ¥320,000 ¥60,000 +25%

???? Key Insight: Certified products command higher prices but ensure long-term reliability and compliance with international standards.

1.3.2 The Cost-Benefit Analysis of 100% Inspection vs. Sampling

Inspection Method Cost per Anode Defective Product Rate 100% Inspection ¥15 <0.1% AQL Sampling (1.0 Standard) ¥3 2%

???? Example: A customer chose AQL sampling and received a batch with 2% defective anodes, causing $150,000 in warranty claims.

???? Recommendation: For high-value applications, 100% inspection is the best investment.

1.4 Layer 4: Hidden Operational Costs (5-15% of Total Cost)

1.4.1 The Butterfly Effect of Supply Chain Volatility

• Example: In , the Russia-Ukraine conflict restricted VSMPO titanium exports, driving Gr1 titanium sheet prices up by 23%.
• Our Solution: Establishing strategic reserves across China, the US, and Russia, mitigating ±15% price fluctuations.

???? Key Lesson: Reliable suppliers should maintain multi-region inventory to shield clients from geopolitical risks.

1.4.2 The Value of Technical Support Services

Service Cost per Session Estimated Cost Savings Environmental Simulation Analysis ¥5,000 Prevents misselection losses of ¥200,000+ On-Site Installation Guidance ¥8,000/day Reduces commissioning time by 3-5 days Smart Monitoring System ¥20,000/set Extends service life by 2-3 years

???? Conclusion: Investing in expert services enhances performance, reduces failure rates, and maximizes long-term ROI.

Chapter 2: Decoding Price Variations Across Six Core Application Scenarios

Titanium anodes are widely used in marine corrosion protection, buried pipelines, industrial electrolysis, ballast water treatment, drinking water safety, and geothermal applications. Each of these applications has unique environmental and operational challenges, leading to significant variations in material selection, coating technology, and pricing.

Below, we analyze six major application scenarios, highlighting why prices differ and how to select the most cost-effective solution.

2.1 Marine Cathodic Protection: Battling Chloride-Induced Corrosion

2.1.1 The Unique Challenges of Marine Environments

Marine environments expose metal structures to high chloride concentrations, fluctuating temperatures, and strong water currents, making them one of the most aggressive settings for corrosion.

Parameter Offshore Platforms Deep-Sea Pipelines Tidal Zones Chloride (Cl⁻) Concentration (ppm) 19,000-35,000 32,000-38,000 25,000-28,000 Water Temperature (°C) 8-28 2-5 -5 to 30 Flow Rate (m/s) 0.5-3 0.1-0.5 1.5-4

2.1.2 The Hidden Risks of Low-Cost Anodes

???? Case Study: Failure at a Southeast Asian Port

• Material Used: Gr2 Titanium (1.5mm) + Ru-Ti Coating (Ir <3%)
• Failure Time: 26 months
• Observed Issues:
  • 45% of the coating peeled off (SEM analysis revealed 28% porosity)
  • Base metal pitting depth reached 0.8mm

???? Economic Impact:

Expense Item Cost (¥10,000s) Emergency Anode Replacement 120 Downtime Losses 80/day Corrosion System Overhaul 200 Total Losses 4.2× the initial investment

2.1.3 Our Advanced Marine Corrosion Solution

???? Breakthrough Technology: Three-Layer Composite Coating (Patent No. ZL.7)

Coating Structure:

1️⃣ Base Layer: RuO₂ + TiO₂ (Enhances adhesion and mechanical strength)
2️⃣ Intermediate Layer: IrO₂ + Ta₂O₅ (Provides superior chloride corrosion resistance)
3️⃣ Top Layer: Platinum Microcrystals (Reduces oxygen evolution potential for improved efficiency)

???? Cost-Effectiveness Analysis:

Metric Standard Anodes Our Solution Improvement Lifespan (Years) 5-8 12-15 +80% Energy Consumption (kWh/year) 8,500 6,200 -27% Total Cost of Ownership (TCO) Over 20 Years (¥10,000s) 530 280 -47%

???? Key Takeaway: Investing in premium coatings and advanced materials reduces long-term maintenance costs and operational risks.

2.2 Underground Pipeline Protection: Addressing Soil Corrosion Challenges

2.2.1 Corrosion Types and Cost Impact in Different Soil Conditions

Region pH Range Resistivity (Ω·m) Major Corrosion Factors Solution Cost Increase Northeast Permafrost Zone 5.8-6.2 15-30 Freeze-thaw cycles, microbial corrosion +25% Northwest Saline Soil 7.5-8.5 5-10 SO₄²⁻ + Cl⁻ +35% Southern Acidic Soil 4.0-5.5 20-50 H⁺ + Organic Acids +40%

2.2.2 Case Study: China-Russia East Gas Pipeline Project

???? Project Challenges:

• Pipeline Length: 3,000 km (from Heilongjiang to Shanghai)
• Soil Conditions: pH 4.5-8.2, Cl⁻ 500-5,000 ppm
• Temperature Range: -40°C to +45°C

???? Customized Solution Cost Breakdown:

Item Standard Cost Additional Cost Technical Justification Titanium Pre-Treatment ¥8/kg +¥6/kg Improves low-temperature toughness Ir-Ta-Si Composite Coating ¥120/m² +¥75/m² Sulfate corrosion resistance Smart Monitoring Module – +¥30 per anode Provides real-time lifespan alerts

???? Total Cost Increase: +42%
✅ Extended Maintenance Cycle: 8 Years (vs. 3-5 years with standard materials)

2.2.3 Special Considerations for Permafrost Regions

• Thicker Titanium Base: Increased from 2mm to 3.5mm (boosts freeze-thaw stress resistance by 60%)
• Grain Refinement: ASTM Grade 5 → Grade 8 (improves mechanical stability)
• Coating Innovations:
  • 5% Nano-Al₂O₃ (improves wear resistance by 200%)
  • Dual-Layer Design:
    • Porous Base Layer: Retains protective solution
    • Dense Top Layer: Blocks external contaminants

2.3 Chemical Electrolysis: Extreme Acid & Alkaline Conditions

2.3.1 The Chlor-Alkali Industry’s Efficiency Race

???? Electrolyzer Conditions:

• Temperature: 85-90°C
• Electrolyte: 32% HCl + Free Chlorine
• Current Density: 4-6 kA/m²

???? Performance Comparison of Different Anode Solutions:

Anode Type Lifespan (Months) Cell Voltage (V) Energy Consumption (kWh per Ton of Caustic Soda) Graphite Anode 6-8 3.8-4.2 2,450 Standard Titanium Anode 12-18 3.2-3.5 2,150 Ehisen’s Enhanced Anode 24-36 2.9-3.1 1,980

???? Cost Savings: ¥7 Million Per Year (ROI achieved in <8 months!)

2.4 Ballast Water Treatment: Preventing Corrosion in Dynamic Marine Conditions

2.4.1 The Unique Challenges of Ballast Water Systems

Ballast water treatment systems operate under harsh and constantly changing conditions, which significantly affect anode performance:

✅ Frequent Wet-Dry Cycles: Ballast tanks empty and refill 3-5 times per day, causing accelerated coating wear.
✅ Biological Fouling: Growth of barnacles, algae, and biofilms reduces efficiency.
✅ Variable Salinity Levels: Ballast water originates from different global locations, leading to extreme salt concentration fluctuations:

Water Source Salinity (‰) Baltic Sea 8‰ Red Sea 40‰

2.4.2 Case Study: VLCC Tanker Retrofit Project

A very large crude carrier (VLCC) required anode replacement due to biofouling and premature corrosion.

???? Customized Anode Design:

Feature Standard Design Our Enhanced Design Improvement Base Material Solid Titanium Plate Honeycomb Titanium Structure +30% active surface area Coating Technology Standard Ru-Ir Ru-Ir + 2% Yttrium Oxide +40% biofouling resistance Pre-Treatment None Micro-Arc Oxidation +50% coating adhesion

2.4.3 Cost-Effectiveness Analysis

???? 5-Year Cost Comparison

Item Standard Anodes Our Solution Savings Initial Investment (¥10,000s) 85 110 – Maintenance Costs (5 years) 60 18 -70% Reliability Rating 82% 97% +15%

???? ROI Calculation: 217% return on investment over 5 years.

???? Key Takeaway: Investing in anti-biofouling coatings and optimized anode geometry extends lifespan and cuts maintenance costs.

2.5 Drinking Water Treatment: Balancing Cost & Compliance

2.5.1 Regulatory Requirements for Drinking Water Safety

Titanium anodes used in drinking water electrolysis must meet strict safety and efficiency standards.

???? Heavy Metal Leaching Limits (GB -)

Element Maximum Allowable (µg/L) Testing Method Lead (Pb) ≤5 ICP-MS Iridium (Ir) ≤2 Atomic Absorption Spectroscopy Ruthenium (Ru) ≤10 Ion Chromatography

2.5.2 Case Study: Municipal Water Treatment Plant Performance Test

???? Testing Conditions:

• Processing Volume: 100,000 m³/day
• Electrode Spacing: 20mm
• Current Density: 80A/m²

???? Comparison of Anode Performance:

Supplier Ir Leaching (µg/L) Time to Reach Chlorine Disinfection Level Operating Cost (¥/m³) Low-Cost Supplier A 1.8 35 minutes 0.18 Ehisen’s Solution 0.3 22 minutes 0.12

???? Annual Savings:
???? ¥2.19M per year (based on a 100,000 m³/day processing plant).

???? Key Takeaway: Premium titanium anodes ensure safer drinking water, faster disinfection, and lower operating costs.

2.6 Geothermal Applications: Surviving Extreme Heat & Pressure

2.6.1 The Extreme Conditions of Geothermal Wells

Geothermal environments expose anodes to:
???? High Temperatures: 120-150°C
⚙️ High Pressure: 2.5-4 MPa
???? Aggressive Chemical Attack: H₂S (50-200 ppm) + CO₂ (3-5%)

2.6.2 Case Study: Yangbajing Geothermal Power Station (Tibet)

A geothermal power plant in Tibet experienced rapid anode failure due to sulfide corrosion and extreme thermal cycling.

Are you interested in learning more about iridium oxide coated titanium anodes? Contact us today to secure an expert consultation!

???? Our Solution: Titanium-Palladium Alloy & Nano-Diamond Coating

Feature Standard Design Ehisen’s Enhanced Design Improvement Base Material TA1 Titanium TA8 (Ti-0.05Pd) Alloy +8× crevice corrosion resistance Coating Ru-Ir Ru-Ir + Nano-Diamond +60% thermal conductivity Coating Structure Single Layer Hexagonal Close-Packed Microstructure +200% thermal shock resistance

2.6.3 Performance After 5 Years of Operation

???? Long-Term Testing Results:

Metric Standard Anodes Ehisen’s Anodes Coating Loss 2.8 µm/year 0.14 µm/year Potential Stability ±50mV ±15mV Stress Corrosion Cracking Present None Detected

???? Key Takeaway: Advanced coatings and Pd-alloy substrates prevent failure in extreme geothermal environments.

Chapter 3: The Five Golden Rules of Procurement Decisions

From “Price Traps” to “Value Investments” – A Scientific Decision-Making Framework

In titanium anode procurement, focusing solely on price often leads to hidden long-term costs and performance risks. This chapter introduces five golden rules that help buyers move beyond short-term cost savings to value-driven decision-making, ensuring maximum efficiency, durability, and return on investment (ROI).

3.1 Rule #1: The Four-Dimensional Cost Analysis – A Lifecycle-Based Assessment

Core Principle

The Total Cost of Ownership (TCO) model challenges the traditional price-driven procurement approach, revealing hidden expenses that low-cost products often introduce. By quantifying replacement costs, downtime losses, and compliance risks, buyers can make informed, cost-effective decisions.

TCO Calculation Model

TCO=

Key Additional Cost Factors:

• Environmental Disposal Fee: Anodes containing Ir, Ru, or other heavy metals require professional disposal (~¥500 per unit).
• Regulatory Compliance Cost: Non-certified products may result in fines (e.g., EU REACH penalties exceed 4% of sales).

Case Study: Offshore Wind Platform Cost Comparison

Metric Low-Cost Solution (A) High-Quality Solution (B) Purchase Price (¥10,000s) 80 120 Replacements (20 Years) 4 1 Downtime Loss per Replacement (¥10,000s) 150 0 (online replacement) CO₂ Reduction Cost per Ton (¥/ton) 480 220 20-Year TCO (¥10,000s) 826 283

???? Conclusion: The premium solution saves ¥5.43 million over 20 years and improves CO₂ reduction efficiency by 118%.

3.2 Rule #2: The Three-Tier Verification Process – Using Data to End “Performance Guesswork”

Comprehensive Testing Protocols

✅ Coating Composition Analysis (EDS Spectroscopy)

• Required Metrics:
  • Iridium Content (≥25%) → Ensures high chloride corrosion resistance
  • Impurity Limits (Fe ≤ 0.5%, C ≤ 0.1%) → Prevents coating defects

???? Buyer Protection Tip: Request supplier data and independent third-party testing reports for verification.

✅ Accelerated Lifetime Testing (ASTM G119 Standard)

Application Test Conditions Minimum Pass Requirement Seawater Cathodic Protection 85°C, 3A/dm², 3% NaCl ≥3,000 hours Chlor-Alkali Electrolysis 90°C, 6kA/m², 32% HCl ≥5,000 hours

???? Red Flag Alert: Some suppliers use non-standard tests (e.g., 1A/dm² at room temperature) to inflate lifespan claims.

✅ Real-World Condition Simulation

Example: South China Sea Offshore Anode Validation

• Testing Parameters:
  • Temperature Cycling: 25°C ↔ 60°C (simulating tidal effects)
  • Electrolyte: 3.5% NaCl + 5ppm H₂S
  • Current Surge: 2-8A/dm² step changes
• Pass Criteria: After 3,000 cycles, efficiency drop must be ≤5%

???? Verification Toolkit (Available for Free):

• “Titanium Anode Technical Validation Checklist”
• List of Recommended Global Certification Laboratories
• ASTM/GJB Testing Protocol Templates

3.3 Rule #3: The Six-Dimensional Supplier Audit

Audit Framework

✅ Technical Expertise

• Patent Portfolio: At least 3 core coating technology patents.
• Industry Standards Participation: Contributions to ISO/TC156 or NACE standards.

✅ Manufacturing Compliance

• Environmental Certification: Hazardous waste handling permits, RoHS compliance.
• Smart Factory Rating: Ministry of Industry & Information Technology (MIIT) Smart Manufacturing Grade ≥C3.

✅ Supply Chain Resilience

• Precious Metal Reserves: Iridium stock ≥50kg.
• Titanium Sourcing Verification: Direct supply proof from BaoTi/VSMPO.

✅ Data Transparency

• Online Monitoring System Integration.
• Full Traceability of Batch Data.

✅ Industry Expertise

• Provides Industry-Specific Selection White Papers.
• Proven Project References (≥10 cases in the same application scenario).

✅ Risk-Sharing Commitment

• Warranty Period: ≥30% of the product’s expected lifespan.
• Insurance Coverage: Product liability insurance ≥¥50 million.

???? Audit Scorecard:

Audit Item Weight Score (0-5) Patents & R&D 20% ⬜⬜⬜⬜⬜ Material Sourcing 15% ⬜⬜⬜⬜⬜ Industry Case Studies 25% ⬜⬜⬜⬜⬜ Warranty & Risk Sharing 20% ⬜⬜⬜⬜⬜ Data Transparency 10% ⬜⬜⬜⬜⬜ ESG Compliance 10% ⬜⬜⬜⬜⬜

✅ Passing Score: ≥80 points with no category scoring below 3.

3.4 Rule #4: Contract Negotiation Strategies for Risk Mitigation

✅ Price Adjustment Mechanism

• Trigger Condition: If Ti/Ir/Ru prices fluctuate by more than ±10%, renegotiation applies.
• Example Formula:

✅ Performance Penalty Clauses

• Efficiency Deviation: If below target, deduct 2% of contract value per 1% drop.
• Shortened Lifespan: If lifespan falls short by one year, compensate 15% of purchase price.

✅ Intellectual Property Protection

• Custom designs: Buyer retains ownership.
• Patent Infringement: Seller assumes full legal liability.

???? Case Study: A Multinational Energy Company successfully transferred 75% of supply risk to vendors by optimizing contract terms, achieving:

• Warranty Extension: 2 years → 8 years
• Performance Guarantee: ¥20 million bond secured
• Mid-Term Payment Clause: 15% withheld until mid-lifespan milestone

3.5 Rule #5: Continuous Performance Monitoring – From “Reactive Repairs” to “Proactive Prevention”

Smart Monitoring System Architecture

✅ Hardware Layer:

• Voltage Sensors (±1mV accuracy)
• Wireless Corrosion Rate Probes

✅ Data Layer:

• AI Models: Predict remaining lifespan within ±3 months.
• Blockchain Data Logs: Prevents tampering.

✅ Application Layer:

• Health Dashboard: Real-time efficiency and degradation tracking.
• Automated Maintenance Suggestions.

???? Economic Impact:

Metric Traditional Approach Smart Monitoring Failure Detection Time 30-90 days Real-time alerts Unplanned Downtime 4 times/year 0 times/year Spare Part Inventory 3-month safety stock JIT (Just-In-Time) ordering Annual Savings – ¥850,000 per 1,000 anodes

By following these five golden rules, procurement decisions shift from “price-driven” to “value-driven” strategies. At Ehisen, we don’t just sell products—we empower buyers with a complete decision-making framework to optimize long-term project success. ????

Why Ehisen is Your Best Choice? Your Best Titanium Anode Partner

At Ehisen, we are not just a supplier—we are your strategic partner in cost-effective, high-performance cathodic protection solutions. By applying scientific procurement methods and advanced technology, we ensure superior quality, longer lifespan, and the lowest total cost of ownership (TCO).

???? Industry-Leading R&D & Patents:

• 12+ patented coating technologies
• Graded Ru-Ir-Ta coatings for extended lifespan

???? Premium Manufacturing Quality:

• German GTV plasma spraying technology
• Vacuum sintering for maximum durability

???? Proven Track Record in Global Projects:

• Hong Kong-Zhuhai Bridge: 120,000 anodes installed, zero failures since .
• ExxonMobil FPSO: 11-year performance with less than 10% efficiency drop.

???? Lowest TCO & Maximum Cost Savings:

• Up to 60% total cost reduction vs. low-cost alternatives.
• ROI typically achieved within 8-12 months.

???? Best Customer Protection & Support:

• 18-month warranty extension
• Real-time performance tracking & failure prevention
• Global after-sales service network

???? Contact Ehisen Today – Get the Best Titanium Anodes for Your Project!

The Iridium-Tantalum Coated Titanium Electrode is a specialized electrode that is widely used in a variety of electrolytic processes, including metal extraction, electroplating, and organic reduction. This electrode is designed to provide exceptional performance and durability in even the most demanding applications.

One of the key benefits of the Iridium-Tantalum Coated Titanium Electrode is its resistance to extreme oxidation. This means that the electrode is able to resist the corrosive effects of oxidation, which can cause degradation and reduce the performance and lifespan of the electrode. Additionally, the Iridium-Tantalum Coated Titanium Electrode has a low oxygen evolution overpotential, which helps to improve the efficiency of the electrolytic process and reduce the risk of unwanted reactions.

The Iridium-Tantalum Coated Titanium Electrode is created by applying a thin layer of iridium and tantalum to a titanium electrode. This coating enhances the surface properties of the electrode, providing improved corrosion resistance and increased electrical conductivity. The improved surface properties of the Iridium-Tantalum Coated Titanium Electrode make it an ideal solution for a wide range of applications, including electrochemical bonding, electroplating, and medical implants.

When it comes to choosing an electrode for your electrolytic process, the Iridium-Tantalum Coated Titanium Electrode is an excellent choice. With its exceptional performance, durability, and versatility, this electrode provides a reliable and high-performing solution for a wide range of applications.

Iridium oxide-coated titanium anodes offer numerous advantages compared to other types of anodes, including:

Exceptional Anti-Corrosion Performance

The iridium oxide coating provides a protective layer that helps to prevent corrosion and extend the life of the anode. This exceptional anti-corrosion performance not only reduces maintenance costs, but also helps to ensure consistent performance over time.

Excellent Potential for Oxygen Evolution

Iridium oxide-coated titanium anodes have an excellent potential for oxygen evolution, making them a highly efficient solution for a variety of applications. With a low oxygen evolution overpotential of ≤ 1.5 V, these anodes are able to perform at a high level while reducing the risk of unwanted reactions.

Long Working Life and High Electrocatalytic Oxidation Activity

Iridium oxide-coated titanium anodes are known for their long working life and high electrocatalytic oxidation activity. This makes them an ideal solution for a wide range of applications, including metal extraction, electroplating, and organic reduction.

Reusable Substrate After Electrode Deactivation

One of the key benefits of iridium oxide-coated titanium anodes is their ability to be reused after electrode deactivation. This not only reduces costs, but also helps to minimize waste and promote sustainability.

Ability to Carry High Current Density for Increased Production Efficiency

Iridium oxide-coated titanium anodes are also capable of carrying high current density, which helps to increase production efficiency. This makes them an ideal solution for high-volume production environments where efficiency is a top priority.

In conclusion, iridium oxide-coated titanium anodes offer a number of benefits that make them an excellent choice for many different industries and applications. With their exceptional anti-corrosion performance, high current efficiency, long working life, and versatility, these anodes are a reliable and cost-effective solution for many different needs.

We understand that every application is unique, which is why we offer customization options for iridium oxide-coated electrodes in various shapes and forms. Our options include:

• Strips
• Sheets
• Expanded metal
• Corrugated sheets
• Perforated sheets
• Foils
• Squares
• Wires
• Rods
• Discs
• Bars
• Tubes

This wide range of options ensures that we can create the perfect titanium anode to meet your specific needs.

In addition to customization options, we also offer MMO anodes in different types and specifications. Here are some general sizes we provide for your reference:

• Rod type: Diameter ranging from 10mm to 50mm
• Wire type: Diameter ranging from 0.5mm to 10mm
• Tubular Type: Diameter ranging from 10mm to 200mm
• Plate Type: Thickness ranging from 0.5mm to 5mm
• Mesh Type: Thickness ranging from 0.5mm to 2.0mm

Choose Hele Titanium for all your iridium oxide-coated titanium anode needs, and benefit from our commitment to quality, service, and customization

If you are looking for more details, kindly visit platinized titanium anode.