Rock Slope Stabilization and Rockfall Protection
The High-Strength Steel Mesh System is a comprehensive high-tech solution specifically designed for projects aimed at minimizing rockfall risks and stabilizing slopes. The system functions as a high-resistance protective covering capable of enveloping and firmly securing the slope surface, effectively preventing rock rolling, rockfall, and localized soil and rock sliding. It represents a breakthrough in composite mesh technology by combining the load-bearing capacity of steel cables with the flexibility of double-twisted wire mesh to ensure the safety of infrastructure and structures located below.
Product Features
The product features outstanding technical characteristics in compliance with TCCS 35:2021/TCĐBVN standards:
- Integrated high-strength design: A unique combination of double-twisted hexagonal steel wire mesh and high-tensile steel cables (1770 N/mm²) within a single system, providing enhanced stiffness and tensile resistance of up to 180 kN/m.
- Excellent puncture resistance: The system provides puncture resistance of up to 155 kN, enabling effective control of large rock masses and strong impact forces from falling rocks.
- Low deformation performance: With high tension and low elongation properties, the mesh system minimizes soil and rock displacement from the early stages of slope instability.
- Integrated accessory system: Supplied with specialized components such as galvanized anchor plates (HR Plate), U-clips (HR Grip), and connecting devices (HR Link), forming a continuous and robust protection system.
- Multi-level corrosion protection: Two protection options are available, including GalMac® aluminum-zinc alloy coating (Class A) or an additional continuous Polymer (PVC) coating, ensuring long service life even in harsh environments such as coastal areas.
- Optimized installation: Simple installation process with adjacent mesh panels requiring no overlap, minimizing overlap waste, reducing material consumption, and significantly shortening installation time.