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Hebei Xiangguang Metal Net Co., Ltd. specializes in the engineering and manufacture of high-precision Filter Discs, designed to provide absolute system protection across the most demanding industrial environments. By integrating advanced material science with precision weaving and sintering technologies, our filter discs ensure the removal of contaminants while maintaining optimal flow rates, safeguarding critical machinery and enhancing final product purity.
From ultra-fine micron ratings to robust multi-layer structures, our filter discs are engineered for versatility. Whether you require corrosion-resistant Monel mesh for marine applications, heat-resistant Inconel for aerospace, or cost-effective stainless steel for general industrial use, we provide fully customizable filtration solutions tailored to your exact geometric and operational specifications.
| Material Options | Stainless Steel, Brass, Phosphor Copper, Nickel, Monel, Inconel | Round Disc Diameter | 44mm to 600mm |
|---|---|---|---|
| Ring Disc Dimensions | ID: 18-250mm | OD: 50-350mm | Rectangular Dimensions | Width: 50-100mm | Length: 60-400mm |
| Thickness Range | 0.1mm to 6mm | Mesh Size Range | 10 mesh to 635 mesh |
| Structural Design | Single, Double, or Multi-layer options | Fabrication Method | Spot-welded or Non-spot-welded |
| Pore Size (Powder) | 0.003 to 200 micrometers | Sintered Density | 35% to 75% porosity |
Finely woven meshes and smooth surfaces ensure the capture of the smallest particles with maximum efficiency.
Reusable and rinseable designs reduce operational waste and lower long-term replacement costs.
Expertly engineered construction prevents filter media from migrating, ensuring contamination-free flow.
Optimized flow paths minimize pressure loss, reducing energy consumption and increasing system efficiency.
Available in flat, pleated, or sintered formats to match any spatial or pressure requirement.
Full customization of material, shape, and micron rating to meet unique industry-specific standards.
Rigorous selection of high-grade SS, Monel, and Inconel for maximum durability.
Advanced spot-welding and sintering processes for structural integrity.
Strict adherence to micron rating tolerances and dimensional accuracy.
Testing against chemical corrosion and extreme temperature environments.
Collaborative engineering to create bespoke discs for niche industrial needs.
Global shipping with secure packaging to prevent mesh deformation.
| Standard Disposable Discs | Xiangguang Metal Discs |
|---|---|
| High (Frequent replacement) | Low (Reusable/Rinsable) |
| Variable/Low | High (Precise Micron Ratings) |
| Short-term use | Long-term Industrial Grade |
| Significant Drop | Optimized Low Pressure Drop |
| High Waste Generation | Sustainable & Eco-friendly |
Mesh filter discs are made from woven wire cloth, ideal for liquid and gas flow systems. Powder filter discs are created via powder metallurgy (sintering), resulting in a porous metal structure with interconnected pores, better suited for extremely high-pressure or high-temperature environments.
For marine applications, Monel mesh is highly recommended due to its exceptional resistance to corrosion in saltwater environments, although high-grade stainless steel is also a viable option depending on the specific salinity and temperature.
Yes, our metal filter discs are designed to be durable and can be rinsed or cleaned multiple times, significantly reducing operational costs and waste compared to disposable filters.
Pleated designs provide a much larger effective filtration area within the same compact footprint, which helps in reducing the pressure drop and increasing the dirt-holding capacity of the filter.
Absolutely. We offer fully customized filter discs based on your specifications for material, shape (round, ring, or rectangular), thickness, mesh size, and fabrication technique.
Stainless steel sintered mesh or high-precision woven stainless steel discs are preferred in pharmaceutical manufacturing to ensure the highest purity standards and prevent any media migration into the medication.
