3D Composite Drainage Mesh

Plastic drain pipes are composed of a plastic core wrapped with filter fabric. The plastic core is primarily made of thermoplastic synthetic resin, modified and extruded into fine plastic filaments in a molten state through a nozzle. These filaments are then fused at nodes by a molding device to form a three-dimensional mesh structure. The plastic core comes in various shapes, including rectangular, hollow matrix, and circular hollow circular. This material overcomes the shortcomings of traditional drain pipes, featuring high surface porosity, good water collection, large void ratio, excellent drainage, high compressive strength, good pressure resistance, flexibility, adaptability to soil deformation, durability, lightweight, ease of construction, and significantly reduced labor intensity for workers. It also boasts high construction efficiency, making it widely welcomed by engineering departments and extensively applied.

1) Roadbed and shoulder reinforcement and drainage for highways and railways.

2) Tunnel, subway underpasses, and underground storage yard drainage

3) Soil and water conservation for slope and embankment development

4) Various retaining wall vertical and horizontal drainage.

5) Drainage for slippery ground;

6) Coal-fired power plant ash pond drainage; Landfill project drainage;

7) Drainage for sports facilities, including golf courses, baseball fields, soccer fields, parks, and recreational green spaces.

8) Roof garden and planter box drainage

9) Construction foundation works drainage.

10) Agricultural and horticultural underground irrigation and drainage systems;

11) Drainage systems for low-lying and damp areas. The drainage materials used in land reclamation projects, internationally known as composite geosynthetic drainage bodies, are also referred to as three-dimensional drainage boards and civil engineering collection drainage channels. These are three-dimensional porous materials formed by heating thermoplastic synthetic resins to melt them, then extruding fiber filaments through nozzles and stacking them together, with the contact points fused together.