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Product Details:
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| Diameter: | 1.6mm | Zinc Purity: | 99.9% / 99.99% / 99.995% |
|---|---|---|---|
| Surface Condition: | Smooth, Low-oxide | Density: | 7.14 G/cm³ |
| Melting Point: | 419.5°C | Diameter Tolerance: | ±0.02mm - ±0.05mm |
1.6mm zinc wire is one of the most widely used diameters in industrial corrosion protection because it provides an optimal balance between melting efficiency, feeding stability, and coating deposition rate.
In cathodic protection systems, zinc acts as a sacrificial anode. When applied onto steel pipelines or buried structures, it corrodes first, protecting the underlying steel from electrochemical degradation caused by soil moisture, water exposure, and industrial chemicals.
This makes 1.6mm zinc wire a preferred choice for:
| Item | Specification |
|---|---|
| Product Name | Industrial Zinc Wire |
| Diameter | 1.6mm |
| Purity | 99.9% / 99.99% / 99.995% |
| Surface Condition | Smooth, low-oxide |
| Density | 7.14 g/cm³ |
| Melting Point | 419.5°C |
| Feeding Type | Arc spray / thermal spray compatible |
| Production Method | Precision cold drawing |
| Coil Type | Spool / industrial coil |
| Application | Pipeline / cathodic protection / steel coating |
| Inspection | SGS / BV / third-party testing |
| Packaging | Moisture-proof export packaging |
| Customization | Available (diameter, spool weight, purity) |
Pipeline corrosion is primarily caused by soil moisture, electrolytes, and oxygen penetration. Zinc wire provides active electrochemical protection, forming a protective layer that sacrifices itself instead of the steel pipeline.
During arc spraying, molten zinc is deposited onto the pipe surface, forming a dense metallic coating that provides:
This makes 1.6mm zinc wire a standard consumable in pipeline coating operations worldwide.
| Item | 1.2mm Zinc Wire | 1.6mm Zinc Wire |
|---|---|---|
| Feeding Stability | Moderate | Higher stability |
| Melting Rate | Faster but less controlled | Balanced and stable |
| Coating Thickness | Thin layer tendency | Uniform medium thickness |
| Equipment Compatibility | Light-duty systems | Industrial arc spray systems |
| Application Scope | Small components | Pipelines and large structures |
1.6mm zinc wire is preferred in industrial systems where consistent coating thickness and stable continuous operation are required.
| Item | 1.6mm Zinc Wire | 2.0mm Zinc Wire |
|---|---|---|
| Arc Energy Requirement | Lower | Higher |
| Spray Efficiency | Balanced | Higher deposition rate |
| Feeding Control | Excellent | Slightly heavier feed load |
| Application | General industrial use | Heavy-duty coating systems |
| Cost Efficiency | More economical | Higher consumption rate |
1.6mm wire is widely chosen for pipeline protection because it delivers stable performance with lower energy demand.
Surface quality directly affects arc stability and coating consistency. Poor surface condition leads to:
A smooth, oxide-controlled surface ensures:
Yes, 1.6mm zinc wire is extensively used in cathodic protection systems for pipelines, tanks, and buried steel structures.
It provides:
This makes it a core material in oil & gas and water infrastructure industries.
Industrial zinc wire is supplied in:
Proper packaging ensures:
1.6mm industrial zinc wire is a critical material for cathodic protection and pipeline coating systems. Its balanced diameter, stable feeding behavior, and strong corrosion resistance make it highly suitable for long-term infrastructure protection.
It is widely used in oil pipelines, underground steel systems, and industrial corrosion control projects where reliability is essential.
Because it offers the best balance between feeding stability, melting control, and coating uniformity.
Yes, it is widely used in underground pipeline and buried steel protection systems.
99.9%–99.995% purity is recommended for stable corrosion protection performance.
Yes, it is fully compatible with standard arc spray systems used in industry.
It forms a sacrificial coating layer that corrodes instead of the steel pipeline.
It provides optimal balance between feeding stability and coating efficiency for industrial use.
Contact Person: Mr. xie