Design Standards for Container Houses

The design standards for container houses cover various aspects such as structure, functionality, safety, and environmental protection, as detailed below:

I. Structural Design and Material Selection
Structural stability is paramount, requiring the use of high-strength steel to ensure overall stability during transportation, assembly, and use, especially in multi-story combinations where attention must be paid to vertical load transfer and horizontal lateral resistance. Connection reliability necessitates the use of high-strength bolts, welding, or specialized connectors to meet the demands of repeated disassembly and reassembly. For material selection, the exterior shell primarily uses benzene board or glass wool core materials, balancing thermal insulation, heat preservation, and corrosion resistance; the interior base layer must resist deformation; doors and windows are made of aluminum alloy or UPVC materials, with double-glazed glass to enhance sealing.

II. Functional Adaptation and Space Optimization
Spatial adaptability is achieved through horizontal, vertical, or three-dimensional splicing to create diverse layouts, with careful planning of door and window positions, internal partitions, and corridors. Functional zoning should clearly define areas for rest, work, and storage to avoid interference and optimize flow. Flexibility is enhanced through the use of movable partitions or folding furniture, facilitating rapid space adjustments to suit different scenarios.

III. Sealing and Waterproofing
Manufacturing processes must strictly ensure the water tightness of the container itself, with additional sealing strips, waterproof adhesives, or drainage channels added at joints to prevent rainwater penetration. Roof design should incorporate drainage slopes to prevent water accumulation, rusting, or leakage, thereby extending service life.

IV. Seismic and Deformation Resistance
Structural stiffness and energy dissipation mechanisms should be optimized based on seismic zone ratings, such as adding flexible buffer devices at connection nodes or reinforcing lateral resistance systems with diagonal braces. Load calculations must account for both live loads (people, furniture) and dead loads (structural self-weight), ensuring that steel member cross-sections meet strength requirements.

V. Environmental Protection and Recyclability
Priority should be given to using recyclable materials and minimizing irreversible processes like welding to facilitate the secondary use of components after disassembly. Construction and use must comply with environmental standards, including the use of eco-friendly materials and proper disposal of construction waste, to reduce environmental impact.

VI. Transportation and Relocation Convenience
Container units must maintain independent transportation capabilities, with dimensions and weights conforming to road transportation regulations. Design should incorporate lifting points, forklift holes, and other handling interfaces to ensure that overall relocation does not require structural damage, enhancing reuse efficiency.

VII. Building Safety and Fire Prevention
Structural safety must meet building standards, capable of withstanding normal loads such as wind and snow, with structural calculations and reinforcement designs conducted as necessary. Fire prevention regulations require the use of fire-resistant materials, equipped with fire extinguishers, smoke detectors, and other fire safety facilities, while also considering measures against natural disasters like earthquakes.

VIII. Supporting Facilities and Living Conditions
Essential infrastructure such as water, electricity, gas, and communications must be provided to meet basic living needs. The surrounding area of the house should include planned green spaces, roads, parking, and other public facilities, along with necessary community services to enhance living comfort.