Fixed installation LED displays are typically not frequently disassembled or moved after installation, forming a rigid connection with the building structure or supporting structure to ensure reliable visual output under various environmental conditions.
Fixed installation requires the Fixed Installation LED Display to have high structural strength and shock resistance. Mechanical connections between cabinets must achieve seamless splicing to ensure the integrity of the displayed image. Protective performance must adapt to changes in temperature and humidity, dust, or rain erosion in the installation environment, and internal electronic components must have long-term operational stability. The heat dissipation system must be compatible with the installation structure to avoid performance degradation due to heat accumulation. Furthermore, the installation structure must provide reasonable maintenance access for easy future repairs.
Fixed installations are suitable for locations with long-term needs for the display system. Indoor environments are commonly found in commercial building atriums, conference room backdrops, monitoring and command centers, and other scenarios requiring continuous operation. Outdoor installations are concentrated in open-air locations such as building facade advertising screens, transportation hub information displays, and sports stadium event timing screens, requiring resistance to natural elements such as wind, rain, and ultraviolet radiation. Installation locations are typically chosen within load-bearing walls, steel frame structures, or custom-made bases, with designs that must be compatible with the building's existing structural loads and safety regulations.
First, when installing Fixed Installation LED Display, clients prioritize the safety of the installation plan, including the impact of the display's weight on the building's load-bearing capacity, wind and earthquake resistance design levels, and fireproof insulation of electrical wiring.
Second, they value the visual presentation; the installation angle must match the height and viewing angle of the primary viewing area to avoid image distortion.
Third, they consider maintenance feasibility, clearly defining the physical space and maintenance paths for future module and power supply replacements.
Fourth, cost control is crucial, including the cost of the installation base, special hoisting equipment, and labor costs for subsequent Maintenance.
Finally, they must assess the impact of the installation on the surrounding environment, such as light pollution from the light source in residential areas and noise control during operation.
The load-bearing capacity and material properties of the mounting surface need to be assessed. Concrete walls can be directly fixed using chemical anchors; steel structures require calculation of beam load distribution before welding support frames; glass curtain walls require clamp-type frames to distribute stress. The stress plan must be reviewed by a structural engineer before installation.
The installation tilt angle determines the optimal viewing angle. Flat mounting is suitable for long-distance viewing, while forward-tilted installation can improve brightness attenuation at low viewing angles. Installation flatness error must be controlled within millimeters to avoid bright lines and screen tearing caused by module misalignment.
Maintenance access space must be reserved during the design phase. Single-point maintenance structures allow for module removal from the front, while rear maintenance requires reserved width for the inspection passage. The enclosure should be connected with quick-locking devices, and the power supply and receiver card should be modularly laid out to shorten troubleshooting time.

