Our Ultra Thin Nickel Mesh is engineered for high-precision industrial applications, offering an exceptional combination of electrical conductivity and structural integrity. Specifically designed for demanding electrochemical environments, this mesh utilizes high-purity nickel raw materials to ensure maximum efficiency in energy transmission and current collection, making it a critical component for advanced battery and fuel cell technologies.
To further enhance performance, we implement a specialized nickel plating treatment on the pure nickel substrate. This process optimizes the surface morphology by reducing roughness and defects, resulting in a smoother, more uniform finish. This enhancement not only improves the adhesion of electrode materials but also significantly boosts corrosion resistance and mechanical strength, ensuring long-term stability in aggressive chemical environments.
Detailed Parameters
| Mesh Count | 15 / 20 / 34 / 40 / 46 / 50 / 55 / 100 / 120 / 140 | Wire Diameter | 0.05mm - 0.25mm |
|---|---|---|---|
| Material | High-Purity Pure Nickel | Surface Treatment | Pure Nickel Plating Available |
| Property | High Conductivity & Corrosion Resistance | Structure | Ultra-Thin Woven / Porous |
| Application | Batteries, Fuel Cells, Electrodes | Customization | Full Custom Specifications Supported |
| Special Feature | Large Specific Surface Area | Quality Control | Strict Material Purity Inspection |
Key Advantages
Superior Conductivity
Effectively reduces electrode resistance and energy transmission losses, enhancing battery charging and discharging efficiency.
Maximized Surface Area
The porous ultra-thin structure provides more active sites for electrochemical reactions and better electrolyte contact.
Lightweight & Flexible
Ultra-thin characteristics reduce overall battery weight and allow for flexible adaptation to internal spatial layouts.
Optimized Surface
Nickel plating reduces roughness and defects, facilitating the adhesion of active electrode materials.
Corrosion Resistance
High nickel content ensures stability and longevity when exposed to corrosive chemical electrolytes.
Precision Engineering
Manufactured using advanced weaving technology to ensure consistent mesh openings and wire diameters.
Product Gallery
Management Platforms
Material Selection
Using high-purity nickel raw materials to guarantee chemical stability.
Precision Weaving
Advanced production technology for ultra-thin wire diameter control.
Plating Process
Specialized plating to enhance surface smoothness and conductivity.
Quality Audit
Strict quality control measures at every stage of the manufacturing process.
Inventory Control
Wide range of standard specifications stocked for rapid global delivery.
Custom Solutions
Expert engineering services to meet unique client technical requirements.
Investment Return Comparison
| Performance Metric | Standard Nickel Mesh | Ultra Thin Plated Mesh |
|---|---|---|
| Charge Efficiency | Moderate | Very High |
| Electrode Adhesion | Standard | Superior |
| Weight Impact | Heavier | Ultra-Lightweight |
| Corrosion Rate | Standard | Significantly Lower |
| Cycle Life | Baseline | Extended Life |
Frequently Asked Questions
It is primarily used as current collectors or supporting structures in nickel-hydrogen, nickel-cadmium, and lithium batteries to improve energy density and charge-discharge performance.
Nickel plating makes the surface smoother and more uniform, reducing defects and roughness, which facilitates better adhesion of electrode materials and increases corrosion resistance.
Yes, in fuel cells, it can be used to catalyze the oxidation-reduction reactions of hydrogen or oxygen, promoting efficient electron transfer and current generation.
A larger surface area provides more active sites for reactions, allowing for more complete contact between the electrode and electrolyte, which accelerates reaction rates.
Yes, in addition to our standard inventory, we provide fully customized services to precisely meet your unique wire diameter and mesh count requirements.
The ultra-thin design makes the mesh lightweight and flexible, allowing it to adapt to complex spatial layouts inside the battery and reducing the risk of damage during assembly.
