Double Container House Design Drawing
Currently, there is no directly available complete design drawing for double container houses, but the following design key points can be summarized based on relevant design information:
I. Foundation and Structural Assembly Double container houses are typically assembled from two standard containers. The foundation design needs to consider moisture resistance and thermal insulation. For example, Case 1 uses a pile foundation, which effectively prevents ground moisture intrusion and provides stable support for the overall structure. The assembly method can be chosen as horizontal or vertical based on requirements. Horizontal assembly can create a relatively spacious indoor space, while vertical assembly is suitable for constructing a double-story structure. If a double-story stacked design is adopted, a 40-foot container should be placed on top of another, and the internal floor slabs should be connected to form a continuous double-story space, as shown in Case 4. This design can double the usable area.
II. Spatial Layout Planning The spatial layout should be flexibly designed according to functional requirements. In Case 1, the living room, dining room, and kitchen are combined to form an open public area, while two bedrooms and a bathroom with a bathtub are independently arranged to meet family living needs. In Case 2, the dining room and kitchen counter are combined into a bar counter, and the bedroom and bathroom are located in different containers, suitable for small apartments or single occupants. Staggered designs can create more practical spaces, such as shaded corridors formed under outward-protruding containers and open-air terraces or hanging gardens formed on recessed container roofs, which not only add visual hierarchy but also enhance the user experience.
III. Thermal Insulation and Lighting Design Thermal insulation is crucial in container house design. In Case 1, internal thermal insulation layers are installed on the walls, roof, and floor (except for glass parts) according to local temperatures. In Case 3, thickened polyurethane insulation materials are used, both of which effectively improve indoor temperature stability. For lighting, large-scale floor-to-ceiling windows and roof skylights are common designs. For example, Case 1 uses triple-glazed windows, which not only ensure sufficient natural light but also enhance sound insulation and thermal insulation performance. The combination of broken-bridge aluminum vacuum glass sliding doors and aluminum-clad wood side-opening windows (Case 3) can further optimize ventilation and lighting effects.
IV. Appearance and Energy Design The appearance can be enhanced through material and color combinations. In Case 2, special materials are used to cover the ceiling, floor, and exterior facade, with a white color scheme dominating to create a minimalist style. The exterior facade design, such as louvered shapes, adds a three-dimensional effect and facilitates light adjustment. In terms of energy design, Case 1 installs a solar photovoltaic power generation system on the roof, which can meet part of the electricity demand and reflects an environmentally friendly concept. The planning of external green areas (Case 2) further integrates with the natural environment and enhances living comfort.
