In the construction and lifting sector, wire ropes are vital load-bearing components used in tower cranes, gantry cranes, hoisting systems, trusses, and precast element installation. GMC supplies a full range of galvanized steel ropes, IWRC (independent wire rope core) ropes, and sling assemblies designed for high-tension, repetitive load, and outdoor exposure scenarios. 

Port and offshore engineering environments are among the harshest, with high salinity, humidity, shock loading, and continuous operations. GMC offers dedicated galvanized ropes, marine mooring cables, winch lines, and lifting assemblies designed for these conditions. Our products are widely used in container handling, vessel mooring, offshore platform construction, and subsea towing systems—delivering long-term reliability and operational safety.

Mining and quarrying operations are characterized by extreme loads, long-duty cycles, abrasive conditions, and rugged terrains. GMC provides specialized wire rope solutions tailored to meet the demanding requirements of mining environments—ranging from mine hoist systems and haul truck winches to crusher station lifts and cableways—ensuring maximum performance with minimal downtime.

Steel wire ropes play a vital role in the construction and maintenance of power transmission systems. GMC supplies high-performance, wear-resistant wire ropes and slings that support critical operations such as overhead stringing, pole and tower erection, cable laying, and substation equipment hoisting. Our solutions meet the technical demands of various voltage-level grids and help ensure the long-term reliability of the power infrastructure.

The flexible air-supported membrane material is secured into its designed form through a pre-set steel wire mesh grid, preventing excessive expansion or deformation due to pressure fluctuations. It directly bears external loads, including wind loads, snow loads, and self-weight loads, distributing forces uniformly to the foundation or anchoring devices to avoid localised structural failure.
As a critical load-bearing component, its high strength and fatigue resistance provide structural integrity for air-supported structures, mitigating collapse risks even under extreme weather conditions.