Solar Ground Mount

Carbon steel ground photovoltaic support - Helical ground pile foundation: The core material is Q235B/Q355B carbon steel. It consists of helical ground piles (including pile heads, steel pipe piles with spiral blades, and top connectors) buried underground and the ground support structure above ground. It is installed by mechanical screwing into the soil to serve as the load-bearing foundation for the photovoltaic array. All components are treated with hot-dip galvanizing (with an average galvanizing layer thickness of ≥ 80 μm), achieving full metal connection. It features ready-to-use, no excavation, and recyclability, and is a modern solution to replace traditional concrete foundations.

Inward-curving C-shaped steel is a core load-bearing component of ground-mounted photovoltaic support systems and belongs to a type of cold-formed thin-walled steel. Its cross-section is C-shaped, with inward-curving edges on both sides and stiffening ribs, hence it is also known as "C-shaped photovoltaic purlin".

Aluminum alloy ground photovoltaic support system - concrete foundation scheme refers to a support system that uses high-strength aluminum alloy as the main structural material and concrete components cast on-site or prefabricated as the load-bearing foundation, and is used to fix solar photovoltaic modules in open areas on the ground.

The Agricultural Solar Mount (or Agrivoltaic Mounting System) is a steel structure support system specifically designed for the "power generation on the slab, farming below" model. 

This carbon steel solar-powered cantilever carport features a column-free cantilever design for unobstructed parking and access. The roof integrates photovoltaic panels, providing power generation, sun shading, and rain protection. The carbon steel body is corrosion-resistant and wind-resistant (withstanding wind speeds of up to 60 m/s). Suitable for industrial parks, commercial areas, and family parking spaces, it can be equipped with charging stations, offering long-term benefits from a one-time investment.

Aluminum alloy solar carports can be viewed as a "photovoltaic carport system." They use photovoltaic modules instead of the traditional carport roof, providing not only shelter from wind and rain but also generating electricity from solar energy, achieving dual use of the land. The core component is the aluminum alloy structure, which brings several unique advantages.

Ramming Pile Solar Ground Mount - Slope Area is a highly efficient solution for complex terrains such as slopes and hills. It eliminates the need for large-scale land leveling; by driving steel piles directly into the ground as a foundation and then installing adjustable supports, photovoltaic power plants can be built quickly and stably on irregular ground.

Cast-in-place piles are a type of cast-in-place concrete pile foundation used to provide stable load-bearing capacity and anchoring for the ground support system of photovoltaic power plants. The principle is to mechanically drill holes at predetermined pile locations, insert a reinforcing cage, and then pour concrete on-site to form a monolithic pile column deeply embedded in the stable soil layer. This product is suitable for photovoltaic projects with complex geological conditions, high bearing capacity requirements, or highly corrosive environments, and is one of the most widely used foundation types in large-scale ground power plants.

Ground-mounted photovoltaic (PV) support systems are PV systems where foundation piles are driven directly into the soil using mechanical pressing or screwing methods, upon which PV modules are installed. 

Carbon steel ground-mounted photovoltaic (PV) support system - PHC pipe piles - is an integrated structure combining prestressed high-strength concrete pipe piles (PHC piles) as the foundation with a carbon steel PV support system.

The aluminum alloy spiral ground anchor-based photovoltaic support system adopts the "rotational insertion installation" and "fully aluminum anti-corrosion" design, providing a ground installation solution with lower environmental impact and higher construction efficiency for small and medium-sized photovoltaic projects.