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Permanent Stainless Steel Cathodes - High-Quality China Suppliers and Factory for Electrolytic Processes

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Material: Stainless Steel Clad Copper Hanger Bar: 304, 316, 316L / C11000
Stainless Steel Plate: 304, 316, 316L

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Specification: Customized according to customer drawings and requirements

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Examples include:

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Stainless Steel Clad Copper Hanger Bar: 40*20*1420 mm - as per drawing
Stainless Steel Plate: 1165*950*3 mm - as per drawing

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Stainless Steel Clad Copper Hanger Bar: 40*20*1082 mm - as per drawing
Stainless Steel Plate: 880*1240*3 mm - as per drawing

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Stainless Steel Clad Copper Hanger Bar: 40*20*1342 mm - as per drawing
Stainless Steel Plate: 950*1382*3.0 mm - as per drawing

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Standards: Stainless Steel Clad Copper Hanger Bar conforms to GB/T 12769-2015
Stainless Steel Plate follows ASTM A312

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Stainless steel cathode plates are essential components in hydrometallurgy processes (including electrolytic copper, zinc, nickel, cobalt, etc.). These plates primarily act as cathodes in electrolytic cells, facilitating the deposition of metals. Our products are distinguished by their high-quality materials, durable structure, superior performance, and cost-effectiveness. As a leading factory and supplier in China, we are committed to providing top-notch solutions tailored to the needs of our clients.

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    Product Description
    🛡️ Material Properties
    • Strong corrosion resistance: Made of high-quality stainless steel (304, 316, 316L, etc.), resists electrolyte corrosion including sulfuric acid and chloride ions, ensuring long service life.
    • High electrical conductivity: Surface is specially treated (polishing, coating) to reduce contact resistance and improve current efficiency.
    • High mechanical strength: Good rigidity, resists deformation, withstands mechanical stress during hoisting, transportation, and stripping.
    📐 Structural Design Features
    • High flatness: Surface tolerance ≤ ±2mm/m², ensuring uniform metal deposition and preventing short circuits.
    • Optimized edge sealing: Flanging or sealing design prevents deposited metal from wrapping around edges, facilitating stripping.
    • Robust lifting lug structure: Firmly welded lifting lugs with reasonable design for easy crane hoisting and stripping.
    • Lightweight design: Optimized thickness under strength guarantee reduces weight and lowers material and transportation costs.
    Performance Characteristics
    • High deposition efficiency: Smooth surface finish, fine metal crystallization, uniform adhesion, and easy stripping.
    • Long service life: Corrosion and wear resistant, reusable thousands of times with low maintenance costs.
    • Energy-saving: Good electrical conductivity reduces cell voltage and minimizes electrical energy loss.
    • Convenient operation: Humanized design for easy hoisting, alignment, and stripping, enhancing production efficiency.
    🌱 Economy & Environmental Protection
    • Low comprehensive cost: Although initial investment is relatively high, long service life and low maintenance cost deliver strong long-term economic benefits.
    • Environmentally friendly: Stainless steel is fully recyclable, reducing waste; optimized electrolytic process lowers energy consumption and pollution.
    Application Field Analysis
    • 🏭 Widely used in non-ferrous metallurgy
      Electrolytic extraction and refining of copper, zinc, nickel, cobalt, manganese, etc.
    • 🔧 Customizable specifications
      Length, width, thickness and lifting lug positions can be customized according to the size of the electrolytic cell, current density and other requirements.
    • Optional surface treatments
      Such as polishing, sandblasting, conductive coating, etc., to meet different process requirements.
    Frequently Asked Questions
    • Q What stainless steel grades are used for permanent cathode plates? +
      Permanent stainless steel cathode plates are commonly manufactured using grades 304, 316, and 316L stainless steel. Grade 316 and 316L are preferred in more aggressive electrolyte environments due to their superior resistance to chloride ions and sulfuric acid corrosion, ensuring extended service life.
    • Q How many times can a stainless steel cathode plate be reused? +
      High-quality stainless steel cathode plates are designed for thousands of reuse cycles. Their corrosion-resistant and wear-resistant properties, combined with low maintenance requirements, make them extremely cost-effective over their operational lifespan compared to traditional cathode materials.
    • Q Can the cathode plate dimensions be customized for different electrolytic cells? +
      Yes. The length, width, thickness, and lifting lug positions of the cathode plates can all be fully customized to match the specific dimensions of your electrolytic cell, current density requirements, and operational process parameters. Please contact us with your specifications for a tailored solution.
    • Q What surface treatment options are available for stainless steel cathode plates? +
      Several surface treatment options are available depending on process requirements, including mirror polishing, sandblasting, and conductive coating applications. Polishing reduces surface roughness to promote uniform metal deposition and easier stripping, while conductive coatings further reduce contact resistance and improve current efficiency.
    • Q Which metals can be refined using stainless steel cathode plates? +
      Stainless steel cathode plates are widely applied in the electrolytic extraction and refining of various non-ferrous metals, including copper, zinc, nickel, cobalt, and manganese. They are a core component in modern hydrometallurgical operations across the mining and metals processing industries.
    • Q How do stainless steel cathode plates contribute to energy savings? +
      The high electrical conductivity of stainless steel cathode plates, enhanced through surface treatments, significantly reduces contact resistance within the electrolytic cell. This lowers the overall cell voltage required during operation, directly minimizing electrical energy consumption and contributing to more sustainable, cost-efficient production processes.