Housing Container Skeleton Structure

The housing container skeleton structure typically adopts a full-steel structural frame or a light-steel structural frame, featuring high strength, good wind and earthquake resistance, and some structures are optimized to meet the usage requirements of different scenarios.

Mainstream Structural Types

The full-steel structural frame is the mainstream for housing container skeleton structures. For example, the packing boxes and quick-assembly boxes from Suzhou Zhongnan Steel Structure Co., Ltd. all use full-steel structural frames. Precision welding processes ensure the structural integrity, with measured wind resistance up to Grade 12 and earthquake resistance up to Grade 8. The frame deformation rate is as low as 0.18%, far below the industry's qualified threshold of 0.3%. Some products incorporate light-steel structural frame technology, processing thin-walled galvanized steel into structural components for building walls, floor systems, and roof structures, reducing self-weight while ensuring strength and improving transportation and installation efficiency.

Structural Stability Optimization

For extreme working conditions, the skeleton structure enhances stability through multiple designs. For instance, adding C-shaped steel purlins between the bottom beams evenly distributes the load to each main beam, allowing the container to remain stable even when stacked three layers high. Filling hard polyurethane foam between the steel skeleton and interior wall panels and adding rubber insulation pads at the keel connections form a thermal-break lining structure, reducing internal and external heat exchange efficiency by about 40% and minimizing structural deformation risks caused by temperature differences. Additionally, rounded edges are used to prevent on-site personnel from bumping into them, while optimizing the wind resistance coefficient to enhance wind resistance.

Connection Process and Material Selection

The reliability of the skeleton structure depends on the connection process and material selection. Fully welded structures have high weld strength, are less likely to loosen after long-term use, and offer better wind and earthquake resistance compared to semi-welded and semi-bolted connection structures. Using a protective system of shot blasting for rust removal followed by spraying zinc-rich primer and polyurethane topcoat allows the steel to maintain effective service life for more than 15 years in harsh environments. Some products use computer simulations to pre-design steel stress points, reducing the skeleton weight to only one-fourth of that of traditional brick-concrete structures while significantly improving wind and earthquake resistance.

Scenario Adaptability Design

The skeleton structure can be flexibly adjusted according to different usage scenarios. For example, engineering camp scenarios require rapid deployment, adopting a modular plug-in design that allows a single module to be installed in just 4-6 hours, with basic interior finishes pre-installed before leaving the factory. Commercial temporary space scenarios focus on customization, supporting on-demand assembly of special structures with an interior space utilization rate of over 90%. Emergency support scenarios emphasize reusability, allowing for repeated disassembly and assembly up to 15 times or more, with no significant decrease in structural stability after each disassembly and assembly.