Cable trays in photovoltaic power plants bear the crucial responsibility of supporting and protecting the entire cable link from the photovoltaic array to the inverter and the power grid. Their core advantages include: international compliance design (such as UL/CE certification) and high-strength aluminum alloy/304 stainless steel materials; a hot-dip galvanized layer thickness of ≥85μm, providing over 25 years of long-lasting protection in highly corrosive outdoor environments such as coastal and desert areas; a stepped ventilation structure combined with a dense heat dissipation hole design, effectively reducing heat accumulation caused by high currents in photovoltaic DC cables and improving system power generation efficiency; and a modular accessory system (horizontal/vertical bends, tees, and reducing connectors) supporting flexible routing in complex terrains, adapting to the installation needs of different scenarios such as rooftop and ground-mounted power plants. Direct supply from the factory ensures fast delivery and is suitable for extreme temperature differences from -40℃ to 120℃, meeting the structured wiring needs of large-scale photovoltaic bases in desert and arid regions and distributed photovoltaic projects, significantly reducing the risk of cable mechanical damage and ensuring the long-term stable operation of the power plant.

Cable tray accessories, utilizing standardized connectors, vertical bends, and fire-resistant covers, enable precise path planning in high-density cabling scenarios within data centers. Their key advantages include: 304 stainless steel construction and outdoor-grade powder coating to meet EMI shielding requirements and ensure efficient heat dissipation for 7x24 continuous operation; modular design supporting rapid assembly and dynamic expansion; tray-type cable trays with grounding clips to ensure electrical continuity; and a ladder structure with ventilation holes to reduce heat dissipation energy consumption by more than 50%. Installation efficiency is increased by 40%, and the system is compatible with intelligent building automation systems, meeting the high reliability requirements of data center infrastructure according to the TIA-942 standard, enabling full-link cable management from the core data center to edge nodes.

Seismic bracing systems are designed according to IBC/NFPA13 standards, utilizing Q235B high-strength steel and toothed channel steel connection technology to create a dynamic load distribution system in public buildings. Its core advantages include: during an earthquake, the lateral/longitudinal support structure effectively restrains pipeline displacement, controlling the swing amplitude within safe limits, preventing the detachment and breakage of lifeline systems such as fire water pipes and cable trays; a double layer of protection with a hot-dip galvanized layer ≥60μm and epoxy coating ensures 30 years of corrosion resistance; and three-dimensional adjustable connectors allow for stepless adjustment, adapting to complex installation environments such as airports, hospitals, and stadiums. As a mandatory standard product, verified through seismic simulation testing, it can reduce the risk of secondary damage by more than 90%, ensuring the continuous operation of emergency power and fire protection systems after a disaster, and improving the building's seismic resistance rating and potential for insurance premium discounts.