Construction of 36 Container Houses
The construction of 36 container houses can refer to the Bee+ case, which involves completing design, customization, and assembly in stages while optimizing construction by leveraging the characteristics of modular containers.
I. Design Phase: Technical Support and Functional Planning
Design is the core aspect of constructing container houses, ensuring structural safety and functional suitability. First, overall architectural drawings must be created to define the arrangement, number of floors, and spatial layout of the containers, such as whether to use a double-story structure or staggered connections to enhance stability. Next, container joint drawings should be drafted to verify the load-bearing capacity of the steel structure through technical data, preventing deformation or cracking due to improper assembly. Additionally, internal construction drawings should detail electrical circuits, plumbing, and other aspects, such as reserving installation spaces for central air conditioning and fresh air systems to ensure seamless integration of equipment later. If referring to the modular design of a 36-square-meter double-wing expandable container house, supporting facilities like moisture-proof systems and soundproof materials can be planned in advance to improve living comfort.
II. Customized Containers: Functional Integration and Standardized Production
The customization phase involves placing orders with factories based on design requirements, focusing on achieving functional integration and standardized production. Containers should be customized to a “fully fitted” standard, including integrated electrical systems (lighting, sockets), access control card systems (security management), and even pre-installed solar panels or rainwater collection devices to enhance environmental sustainability. Equipment interfaces, such as mounting brackets for central air conditioning units and holes for fresh air ducts, should be reserved to avoid damaging the container structure with on-site drilling. If adopting a modular design, factories can be requested to produce containers of uniform specifications (e.g., 6 meters in length and 3 meters in width) for easier and faster assembly later. Furthermore, the container material should be corrosion-resistant steel, with fireproof and heat-insulating layers installed inside to adapt to different climatic conditions.
III. Lifting and Assembly: On-Site Construction and Quality Inspection
The assembly phase requires coordinating transportation and lifting processes to ensure construction efficiency and safety. First, the customized containers must be transported to the designated site and lifted into place one by one using cranes according to the design drawings, with a level used to calibrate the container angles and prevent tilting. During assembly, high-strength bolts should be used to secure the container connections, and steel structures should be welded to reinforce the joints, with waterproof sealant applied where necessary to prevent leakage. If leveraging the modular characteristics of double-wing expandable container houses, the main structure can be assembled first, followed by the expansion of side modules to shorten the construction period. After assembly, a quality inspection must be conducted to check the seal of container joints, electrical continuity, and equipment operation, ensuring compliance with building safety standards.
By following a phased and refined approach, the construction of 36 container houses can be achieved efficiently, safely, and with complete functionality, while modular design further reduces transportation costs and construction complexity.
