Minimal production site occupation.
Full digital control, high production accuracy, superior product quality, and low waste rate.
Optimize internal structure, rendering fasteners unnecessary, with low production costs.
Unit weight cost of wire is lower than that of wire rope. Circular mesh construction involves processing of wire raw materials, and the production value added of circular mesh production is higher than that of wire rope mesh production.
The comprehensive production cost is basically equivalent between the circular mesh and wire rope mesh per unit area.
The latest generation of circular mesh machines boasts mechanical performance and functionality on par with international standards, significantly advancing the domestic circular mesh manufacturing process and greatly reducing production costs. At the same time, it propels the protective capabilities of domestically produced circular mesh into the ranks of advanced Western nations, bridging the decades-long gap with foreign products.
The application of the new-generation annular mesh machine signifies a new level for the domestic slope protection mesh manufacturing industry. It can address the significant隐患 of insufficient protection levels in previous flexible mesh solutions without increasing material costs. The trend towards a complete replacement of wire rope meshes by the new annular mesh is imminent!
The circular mesh is made from a single steel wire twisted together, with the overlap length between the two ends being no less than 100mm. The twisted ring is secured with steel or aluminum alloy fasteners at least at three evenly distributed points, one of which is at the overlap between the two ends. Apart from the edge ring holes, each ring is interconnected with the four surrounding rings. The system can be installed, repaired, and component replacements can be done with a single tool.
To accommodate the industrialization trend in the construction industry, all system components are produced in a standardized factory setting. On-site construction primarily involves modular assembly work, with only a small amount of foundation work focused on anchor bolt installation. Due to the limited capacity of wire rope mesh to block falling rocks, a new circular mesh with enhanced flexibility has been developed, capable of changing its geometric shape during the impact of falling rocks. This mesh can intercept rocks with an energy level of over 3000kJ, further simplifying the structural design (such as the configuration of support ropes and pressure relief rings) and facilitating maintenance and repair after localized damage. It has emerged as a new type of rockfall barrier (RXI model) to replace wire rope systems, achieving an upgrade to the SNS passive protection system.
