I. Standardized and Modular Design Complying with ISO Standards

International Versatility

• Follows ISO international standards (such as ISO 3834 welding standards and ISO 9001 quality management systems). Component dimensions, material properties, and connection methods all adhere to global unified specifications, facilitating application in cross-border projects and component procurement.
• Modular design supports rapid disassembly, transportation, and reassembly, adapting to architectural regulations and site requirements in different countries/regions.

Precise Production

• Automated production lines certified by ISO (such as CNC cutting and robotic welding) in the workshop ensure component accuracy (error control within ±2mm), reducing on-site construction errors.
• Component pre-processing complies with ISO 14692 (steel structure corrosion protection standards), and surface treatments (such as hot-dip galvanizing and anti-corrosion coatings) extend service life.

II. Performance Advantages of Light Steel Structures

Lightweight and High Strength

• Uses high-strength steel such as Q235 and Q355, with a structural self-weight only 1/3 to 1/2 of traditional concrete buildings, reducing foundation loads and suitable for soft soil foundations or seismic-active areas.
• Excellent seismic performance: Light steel structures have good toughness and can withstand seismic fortification intensities of 7-9 degrees (complying with ISO 16670 seismic design standards), reducing structural damage risks.

Flexible Spatial Layout

• Large column grid spacing (typically 6-9 meters) with no load-bearing walls inside, allowing rapid adjustment of workshop functional zones (such as production areas, storage areas, and office areas) through modular combinations to adapt to process changes.
• Supports long-span designs (such as over 20 meters), meeting installation requirements for heavy equipment or high-space operations.

III. Efficiency Improvements in Prefabricated Construction

Shortened Construction Cycle

• 70%-90% of components are prefabricated in the workshop (such as steel frames, enclosure systems, and pipeline embedding), with only hoisting and splicing required on-site, reducing construction time by 50%-70% compared to traditional methods (traditional concrete workshop construction takes approximately 12-18 months, while prefabricated light steel structures only require 4-8 months).
• Unaffected by weather: Factory production avoids delays caused by rainy or winter seasons, ensuring schedule control.

Reduced On-Site Costs

• Reduces on-site labor demand (saving over 60% of manual labor), lowering management costs and safety risks (hazardous processes such as high-altitude operations and welding are completed in the workshop).
• Material utilization rate as high as 95% (compared to 70%-80% in traditional construction), reducing construction waste and disposal.

IV. Environmental Protection and Sustainability

Green Materials and Recycling

• Steel can be 100% recycled, complying with ISO 14001 environmental management system requirements; enclosure materials (such as rock wool and glass wool) use eco-friendly flame-retardant materials, reducing VOC emissions.
• Prefabrication processes reduce on-site dust and noise pollution (by over 70% compared to traditional construction), complying with ISO 45001 occupational health and safety standards.

Energy-Efficient Design

• Walls and roofs use multi-layer insulation systems (thermal conductivity ≤0.04W/(m·K)), combined with natural ventilation and daylighting designs, reducing workshop energy consumption by 30%-50%.
• Can integrate solar photovoltaic panels and rainwater harvesting systems (complying with ISO 50001 energy management standards) to achieve low-carbon operations.

V. Possible Applications of Rubber-Related Technologies (Assumed as Flexible Connections or Shock Absorption Designs)

Seismic and Vibration Reduction

• Uses rubber isolation bearings (such as LRB lead-core rubber bearings) to reduce structural vibration transmission and minimize damage to the main structure from seismic forces (shock absorption efficiency up to 60%-80%).
• Adapts to temperature deformation: The elastic deformation capacity of rubber materials alleviates stress caused by thermal expansion and contraction in steel structures, extending service life.

Noise Reduction and Sealing

• Rubber sealing strips are used in wall panel and roof joints to enhance airtightness (air leakage rate ≤0.5m³/(m·h)) and sound insulation (sound insulation ≥40dB), meeting environmental requirements for precision workshops.

VI. Application Scenarios and Industries

• Industrial Sector: Machinery processing workshops, electronics manufacturing workshops, warehousing and logistics centers, etc., for scenarios requiring rapid construction and adaptation to equipment updates.

• Temporary Buildings: Post-disaster reconstruction workshops, temporary exhibition venues, military logistics facilities, etc., requiring mobility or rapid disassembly/assembly.

• High-Requirement Environments: Special scenarios such as food processing plants (requiring anti-corrosion and easy cleaning), data centers (requiring seismic resistance and energy efficiency), and laboratories (requiring sound insulation and sealing).

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