Container House Project Department Design
The design of the container house project department focuses on modularity and customization, meeting diverse needs through standardized components and flexible layouts, while ensuring structural safety, functional suitability, and environmental adaptability during the design process.
1. Modular Design: A "Lego-style" Structure for Free Combination
The modular nature of container houses is reflected in their ability to assemble standardized components. A single container serves as a basic unit (e.g., a 20-foot or 40-foot standard container) and can be combined horizontally, vertically, or stacked to form spaces of varying sizes. For example, a single-story layout can create office or storage areas, a double-story arrangement can realize dormitory buildings or multi-functional complexes, and independent units can be equipped with ancillary spaces such as restrooms and kitchens. This design approach not only shortens the construction period (typically 30%-50% faster than traditional buildings) but also reduces the complexity of on-site operations, making it particularly suitable for projects with tight deadlines or limited space.
2. Functional Customization: From Interior Layout to Equipment Adaptation
Customized design runs throughout the entire lifecycle of container houses. In terms of interior layout, partition materials (such as light steel keel gypsum boards or fire-resistant glass) can be used to divide functional areas according to needs; circuit routing requires advance planning of socket, switch, and network interface locations to avoid rework later; and window and door types (such as casement or sliding windows) should be selected based on ventilation requirements. For equipment adaptation, projects in northern regions need enhanced insulation layers (e.g., increasing the thickness of polyurethane foam or using double-layer rock wool boards), while those in southern regions require optimized ventilation designs (such as adding exhaust fans or operable skylights). Additionally, the power and installation positions of air conditioners, lighting, and other equipment must be adjusted according to usage scenarios, such as uniform lighting in office areas and zoned control in dormitory areas.
3. Design Process: From Requirement Communication to 3D Model Validation
During the design phase, in-depth communication with clients is essential to clarify usage scenarios (e.g., office, residential, or mixed functions), personnel scale, and special requirements (such as barrier-free facilities). Based on these needs, a 3D model is created,标注尺寸、材质及功能分区 (dimensions, materials, and functional zones are labeled), for example, a 20-foot container can be divided into an office area (60%) and a meeting area (40%), with reserved positions for circuit piping. The model must be confirmed by the client before proceeding to production to ensure the final product matches expectations.
4. Material Selection: Balancing Safety and Comfort
The main frame uses high-strength steel (such as Q345B) to ensure wind and earthquake resistance (capable of withstanding 8-level winds or 6-degree earthquakes); walls and roofs employ fire-resistant (Class A non-combustible) and moisture-proof rock wool boards or color steel plates, with rock wool boards offering low thermal conductivity (≤0.044W/m·K) suitable for cold regions, while color steel plates are more cost-effective and easier to maintain. Floors are typically laid with PVC flooring or non-slip tiles, balancing durability and ease of cleaning.
