Back to blog
Article

Container House Blueprint Knowledge

Admin September 13, 2026

Container house blueprint design should center on core points such as modular combination, space partitioning, and structural reinforcement, and complete a systematic design by combining drawing-type standards with practical application recommendations.

I. Core Design Points

  • Modular combination: Use standard shipping containers (20 ft / 40 ft) as basic units, and form the building mass through horizontal, longitudinal, or stacked combinations. For example, two 40 ft containers placed side by side can create a bay about 12 m wide, while stacking achieves a two-story space; ensure axis alignment between upper and lower containers to avoid structural eccentricity.
  • Spatial partitioning flexibility: Inside a single container, functional zones can be adjusted by removing or adding partition walls—for example, keep a 6 m length in the middle as a public area and separate both ends into independent bedrooms. Partition materials are recommended as light-gauge steel studs + gypsum board, balancing fire performance and construction efficiency.
  • Structural reinforcement needs: Stacked areas or window openings require added steel beam support, and openings need reinforcement of the surrounding frame. For example, when stacking a second story, weld transverse steel beams on top of the lower container to distribute the upper load; when a window opening exceeds 1.2 m, add angle steel reinforcement around the window frame.

II. Drawing Types and Contents

  • Floor plan: Mark container positions, door and window openings, internal functional zones, and furniture layout; include dimension notes (e.g., container length 12 m, width 2.4 m) and material notes (e.g., partitions using light-gauge steel studs + gypsum board; moisture-resistant PVC flooring).
  • Elevations and sections: Elevations show exterior form, door/window heights, and external stair locations; sections mark floor relationships and interior clear heights (e.g., first floor 2.6 m, second floor 2.4 m), and must specify stair slope (≤1:2) and handrail height (≥0.9 m).
  • Structural connection details: Draw 1:10 scale details for connection points (e.g., bolted fixing between containers, steel beam welding), noting weld types (e.g., fillet welds), bolt specifications (e.g., M12×50 high-strength bolts), and corrosion protection requirements (e.g., epoxy zinc-rich primer + polyurethane topcoat).

III. Practical Application Recommendations

  • Prefabricated production: Prefer standardized modules; complete door/window pre-installation, electrical wiring, and insulation installation in the factory (e.g., rock wool board thickness ≥50 mm), so the site only needs assembly and connection—shortening the schedule and reducing errors.
  • Finishes and functional upgrades: Use integrated wall systems indoors (e.g., bamboo fiber panels) for fast finishing, and pair with movable furniture (e.g., foldable tables, wall-mounted beds) to save space; apply anti-rust coatings outdoors (e.g., epoxy zinc-rich primer) to extend service life, and add greenery or sunshades to improve the microclimate.
  • Compliance checks: Before design, confirm local planning permits (e.g., height limit ≤6 m, land use designated as temporary building) and fire codes (e.g., escape route width ≥0.9 m, fire extinguishers provided) to avoid later rework.