Security screens for homes exposed to marine air and salt.
316L Stainless Steel Security Mesh
316L stainless steel security mesh is designed for door and window systems exposed to humid, coastal, or chloride-containing environments. Its low-carbon molybdenum-bearing alloy provides enhanced resistance to pitting and localized corrosion.
It is recommended for coastal residences, humid-area buildings, premium doors and windows, and ventilation openings. Mesh count, wire diameter, panel size, passivation, coating, and frame compatibility can be specified by project.

Product Advantages
- Enhanced chloride resistance: Molybdenum-bearing 316L better resists pitting in demanding exposure.
- Low-carbon alloy: The 316L grade is suitable where welding or humid service is considered.
- Strong woven construction: Crossing wires share force across the finished panel.
- Open and protective: Selected apertures balance security, ventilation, and visibility.
- Coastal project options: Dimensions, coating, separators, and packing can be project matched.
Structure
Low-carbon SUS 316L wires are woven into uniform square apertures, followed by passivation to restore and support the protective surface film. Powder coating and controlled curing can be added where a colored or low-glare finish is required.
Working Principle
The molybdenum-bearing 316L alloy improves resistance to chloride-related pitting compared with general-purpose stainless grades. Its woven structure distributes force between crossing wires while the selected aperture preserves ventilation and sight lines.

Specifications
| Material | Low-carbon SUS 316L stainless steel wire |
| Reference mesh | 11 to 18 mesh |
| Wire diameter | Customized for required opening, strength, and frame system |
| Surface treatment | Passivated; optional powder coating with controlled curing |
| Supply form | Custom panels or rolls with protective separators |
Applications
Corrosion-conscious mesh for persistently damp locations.
316L woven panels for higher-specification frame systems.
Protective airflow openings in chloride-exposed environments.