Ordos Vibrant Waterfront Park Prefabricated Temporary Building Supporting Project

Project name: Ordos Vibrant Waterfront Park Supporting Project

Project type: SMIC modular building | sports park container supporting facilities | prefabricated temporary service buildings | container temporary service buildings

Construction unit: our company

Company website: http://www.ourcompany.com

Project year: 2025

Contact: 021-60760737

Lead designer: Song Xingfeng

Project location: Ordos, Inner Mongolia

Building area: 1571.32 sqm

Building type: SMIC prefabricated modular building

Building materials: SMIC prefabricated modules, aluminum alloy doors and windows, steel plates, tensile membrane, wood-plastic composite, rock wool insulation, carbon crystal panels, sports flooring, SPC flooring

I. Project Background and Design Positioning

As a key venue for regional public fitness, cultural and sports leisure, and urban vitality display, Ordos Sports Park uses blue, orange, and yellow as its main colors, combining tech-inspired curved lines with dynamic light strips to create a public space that is modern, sporty, and forward-looking. This supporting project is the core vehicle for extending park functions and upgrading services. It covers commercial services, leisure and socializing, sports replenishment, cultural display, and more. Site 1 covers 1,129 sqm and Site 2 covers 240 sqm. Overall planning must balance five core needs: composite functions, spatial efficiency, controllable cost, cultural integration, and rapid delivery, creating high-quality supporting spaces that closely match the park's overall character, fully cover service capacity, and continually upgrade the visitor experience.

In choosing the building form, traditional cast-in-place construction faces pain points such as consuming construction quotas, long schedules, heavy on-site pollution, limited spatial flexibility, and difficult later renovation, making it poorly suited to a sports park that needs fast commissioning, dynamic adaptation, and low-carbon environmental performance. By contrast, modular prefabricated buildings, with factory production, assembled construction, and integrated systems as core strengths, align with this project's planning idea of "maximizing first-floor building area and creating a large leisure platform on the second floor." They enable both outdoor shop fronts and expanded park leisure, and through standardized modules combined with customized design, they seamlessly integrate Mongolian cultural elements with the park's tech-sports character—making them the optimal technical path and construction model for this project.

The project's overall positioning is "technology empowerment, culture as soul, modular integration, and integrated construction." Relying on a container modular building system, it deeply fuses four design genes—Mongolian totems, khata culture, sports fashion, and tech-forward lines—to build an end-to-end integrated model of "design — production — construction — operations and maintenance." The result is a modular benchmark project combining commercial support, sports services, cultural display, and leisure socializing. It meets the sports park's immediate service needs and becomes a demonstration of how Ordos regional culture and modern building industry can merge.

II. Design Creativity: Deep Fusion of Regional Culture and Modern Modules (1) Design Concept Origins: From Regional Culture to Spatial Language

The design is rooted in the traditional cultural core of Ordos Mongolian heritage while tightly matching the sports park's overall tone of technology, sport, and fashion, achieving "modern expression of traditional elements and international presentation of regional culture." The core design concept draws from two cultural symbols—the khata and Mongolian totems:

• Khata element: Taking the pure white silk ribbon as imagery, it is translated into streamlined lines on the building facade, the boundary contour of the second-floor platform, and circulation design in interior spaces, symbolizing the Mongolian people's warm blessings and open inclusiveness. The ribbon's sense of flow closely matches the sports park's dynamic vitality, forming an emotional link of "culture — space — sport";
• Mongolian totem element: Geometric outlines, symmetrical structures, and rhythmic beauty from traditional patterns are extracted and woven into module joints, facade decoration, and lighting design. Busy stacking is avoided; a simple, modern approach presents regional cultural identity so the supporting buildings become cultural carriers in the park that can be "read, sensed, and resonated with";
• Tech-sports DNA: Continuing the park's blue, orange, and yellow main colors, paired with curved forms, light-strip systems, and transparent glass curtain walls, the design strengthens the space's tech feel and sports energy. The bold outlines of modular boxes and streamlined decoration create a visual balance of strength and softness, suited to aesthetic and use needs across all age groups.

(2) Spatial Planning Creativity: Efficient Composition and Scenario Fit

Based on site conditions and leasing needs, the project adopts a "full ground-floor coverage, second-floor expansion" spatial layout, using modular combinations to maximize function and spatial flexibility:

• Ground-floor functional zones: Maximize land use and divide into three blocks—indoor venues, specialty shops, and service stations. Indoor venues support small sports experiences, fitness training, and event services; shop areas reserve space for diverse formats suited to F&B, retail, sports gear, and cultural-creative display. Modular partitions allow flexible shop sizes for different tenants; service stations provide consultation, storage, replenishment, restrooms, and other convenience functions for one-stop sports services.
• Second-floor leisure platform: Create a large open leisure space that serves both as outdoor seating and sales for ground-floor shops and as an extended leisure area for the sports park, balancing commercial returns and public service. The platform uses transparent railings, streamlined paving, and plant accents with light-strip lighting. By day it is a place to rest after exercise and gather socially; by night, lighting builds atmosphere and makes it a nighttime vitality node in the park.
• Circulation and landscape integration: The overall building follows a "people-first, convenient service" principle, with main and secondary entrances and evacuation routes linking to the park's main walkways for rapid crowd distribution. Module combinations leave gaps for ventilation and daylight to avoid a cramped feel, while extending park greenery to the building perimeter so "architecture blends into the park and space serves people."

(3) Modular Design Advantages: Balance of Customization and Integration

The project uses a container modular building system with prefabricated container modules as base units. Customized adaptation turns design ideas into reality, combining efficient standardized production with personalized custom expression:

• Module standardization: Main modules are factory-prefabricated to standard specs—structurally stable, load-bearing compliant, and easy to transport. Factories can prefabricate in batches, sharply cutting production cost and cycle time;
• Customized adaptation: Modules are cut, joined, and expanded to create large-span spaces, transparent facades, and streamlined forms, breaking the traditional container limits of being "small and enclosed";
• Functional integration: MEP lines, fire systems, sound and thermal insulation layers, and finish layers are pre-integrated in modules, achieving structure–MEP–fit-out integration. On site, only joining and docking are needed—no secondary construction.

III. Core Value of Modular Prefabricated Buildings: The Necessary Choice for Sports Park Supporting Projects (1) Construction Efficiency: Rapid Delivery and Early Commissioning

Sports park supporting projects must match the park's overall operating rhythm; rapid commissioning is a core need. Modular prefabricated buildings move more than 70% of work to the factory, enabling "factory production in parallel with on-site foundation work," fully overturning the traditional linear flow of "foundation first, then structure, then fit-out":

• Factory stage: Complete the full process—module structure welding, MEP pre-embedding, wall and floor finishes, door and window installation, equipment commissioning. Individual module production cycles are controllable;
• On-site stage: Only foundation casting, module lifting, joint docking, and detail finishing remain. On-site construction is shortened by more than 60% versus traditional buildings. This project can complete the main structure within 3 months and commission quickly, greatly shortening capital recovery and ensuring park supporting services arrive on time.

(2) Controllable Cost: Precise Budgets and Lower Waste

The project clearly requires "cost savings." Modular buildings enable fine cost control from design through construction:

• Low material waste: Factory standardized production cuts steel, panels, and finish materials precisely. Material waste falls by more than 25% versus traditional construction, controlling material cost at the source;
• Low labor cost: The site needs only a small number of lifting and installation workers—no large crews of carpenters, rebar workers, or masons. Labor input drops by more than 50%, sharply cutting labor and management costs;
• Precise budgets: Module production, transport, and installation are standardized processes with no hidden costs from on-site changes or rework. The total budget stays controllable and overrun risk is avoided;
• Low later O&M cost: Modules use corrosion-resistant, fire-resistant, durable materials. Structures are stable and hard to damage; maintenance is simple. Whole-life cost is significantly lower than traditional buildings.

(3) Quality Assurance: Factory Precision, Fewer Common Defects

Traditional on-site work often produces hollow walls, leaks, dimensional deviations, and messy piping. Modular prefabricated buildings are produced in standardized factory workshops with full mechanization plus strict QC, achieving millimeter-level precision:

• Structural welding uses robotic welding with uniform welds and compliant strength, passing pull-out, load-bearing, waterproofing, and other tests to meet seismic, wind, and durability requirements;
• Finish layers are factory-prefabricated; wall flatness and floor levelness far exceed national standards, preventing cracking, hollow spots, and leaks;
• MEP lines are factory-integrated with planned layouts, avoiding on-site chasing and pipe conflicts and ensuring safe, convenient use.

(4) Green and Low-Carbon: Eco-Friendly, Fitting the Park

As an urban ecological leisure space, a sports park's supporting buildings must practice green, low-carbon principles. Modular buildings meet environmental requirements across their life cycle:

• Construction environmental protection: No large volumes of dust, noise, or wastewater on site; construction waste falls by more than 70%, protecting the park ecology as much as possible and avoiding disruption to normal park operations;
• Material environmental protection: Eco-friendly panels, low-carbon steel, and energy-saving insulation are used. Indoor air quality meets standards with no formaldehyde or other harmful substances, fitting healthy public-space needs;
• Circular reuse: Module bodies can be dismantled, relocated, and reassembled, with secondary utilization above 90%. If the park is renovated later, buildings can be moved as a whole or recombined, enabling resource cycling and sustainable development.

(5) Flexible Adaptation: Dynamic Adjustment and Long-Term Operations

Sports park supporting projects must adapt to format changes, footfall swings, and function upgrades over the long term. Modular buildings offer strong flexibility:

• Flexible format adjustment: Modules can be freely joined or split. Shop areas and functional zones can be adjusted anytime based on leasing needs and operations, fitting different tenants;
• Elastic spatial expansion: If operating area or functions need to grow later, new modules can be joined directly without major construction and without interrupting normal operations;
• Multi-scenario conversion: The second-floor leisure platform can quickly become a market venue, event viewing area, or cultural display zone by season or activity needs, achieving "one space, many uses" and raising utilization.

IV. Integrated Production and Construction: End-to-End Control, Seamless Handoff from Design to Delivery

This project can use an integrated "design — production — construction" model, with a professional team coordinating end to end. It breaks the industry pain point of design, production, and construction working in silos, closing the loop of "design guiding production, production feeding design, and precise construction delivery," ensuring design intent is 100% realized and the project lands efficiently at high quality.

(1) Integrated Design: Front-Loaded Coordination Across Disciplines

Integrated design centers on modularity, combining architecture, structure, MEP, fit-out, and landscape. Production processes, transport conditions, and construction details are considered early to avoid later changes:

• Schematic design stage: Based on site size, functional needs, and cultural elements, determine module count, combination methods, facade effects, and spatial layout; sync with production to confirm module sizes, structural feasibility, and process so the scheme is buildable and mass-producible;
• Detailed design stage: Build 3D models to precisely simulate module joining, node connections, MEP routing, and pipe docking, avoiding conflicts in production and construction early; define module split standards, interface specs, and decorative details to form standardized production drawings;
• Front-loaded cost and schedule estimates: Based on the design, complete precise estimates of material lists, production cycles, construction progress, and cost budgets so "design locks cost and design locks schedule."

(2) Factory Production: Standard Precision and Full Process QC

Production is the core of the integrated model. Relying on specialized container factories, modules are produced industrially, to standard, and intelligently, with strict quality control throughout:

• Standardized production flow—steel cutting and welding: High-precision laser cutting keeps module dimensional error within 2 mm; robotic automatic welding ensures structural strength and stability, followed by NDT inspection; corrosion and waterproofing: Module bodies undergo sandblasting, multi-layer anti-corrosion coating, and waterproof sealing at base and facade, passing waterproof pressure tests suited to Ordos climate; MEP and fit-out integration: Pre-embed MEP and fire lines, install doors, windows, walls, floors, and ceilings, and complete basic finishes such as lamps, switches, and outlets so modules leave the factory fully finished; QC before shipment: Each module passes 13 inspection steps covering structural safety, waterproof sealing, MEP flow, and finish quality, receives a unique ID, and ships only when qualified.
• Efficient production control—batch production: Standard modules are produced in parallel, sharply shortening cycles and ensuring seamless handoff with on-site foundations; custom fit: For large-span spaces, streamlined facades, and other custom modules, dedicated molds and processes balance individuality and efficiency; full traceability: Production ledgers record each module's process steps, material info, and QC results for end-to-end traceability.

(3) Assembled Construction: Fast Assembly, Safe and Efficient

On-site work uses assembled lifting methods—no traditional formwork, rebar, or casting. The process is simple, safe, and efficient:

• Construction preparation: Complete site leveling, foundation casting, and embed installation in advance; verify foundation elevations and axis positions for precise module interface matching; plan transport routes and lifting zones with safety protection;
• Module transport: Modules move on specialized trucks with secure protection to avoid damage; ship in batches by construction sequence and lift on arrival to reduce on-site stacking space;
• Module lifting and joining: Use truck cranes for precise lifts. Follow "lower floors first, then upper; main structure first, then details," placing modules accurately on foundation embeds; connect modules to foundations and to each other with high-strength bolts and welding to ensure overall structural stability;
• Joint treatment and finishing: After joining, complete joint waterproof sealing, gap treatment, facade decoration, lighting installation, and main MEP connections; conduct overall acceptance to confirm structural safety, normal function, and appearance standards;
• Construction advantages: Few on-site workers and simple procedures sharply reduce safety risk; short schedules enable fast completion and commissioning with minimal impact on park operations.

(4) Integrated Control: Full-Process Collaboration for Delivery

• Team integration: Design, production, and construction are managed by the same team, avoiding multi-party communication barriers so issues get quick responses and instant solutions;
• Schedule integration: Factory production and on-site foundation work advance in parallel with precise milestone docking—no waiting, no delays;
• Quality integration: Unified quality standards run from design through construction—design tightly controls scheme quality, production tightly controls module quality, construction tightly controls installation quality, closing the quality loop;
• Service integration: One-stop later O&M guidance, module repair, and upgrade services keep long-term operations stable.

V. Technical Highlights and Innovative Applications (1) Culture–Technology Fusion Innovation

Traditional cultural elements such as Mongolian khata and totems are presented through modular facade customization, 3D decorative printing, lighting programming, and other modern techniques—retaining regional cultural identity while matching modern architectural aesthetics, achieving "culture empowering modules, modules carrying culture."

(2) Structure and Space Innovation

Module joining and expansion breaks the single-box space limits of traditional containers, enabling large-span indoor venues and open second-floor platforms that meet both commercial operation and public leisure space needs. The structure uses a steel–composite system with strong load capacity and excellent seismic performance, meeting public-building safety standards.

(3) Green Energy-Saving Innovation

Modules include energy-saving insulation layers to cut HVAC energy use; facades combine light-transmitting materials with light strips so natural daylight and artificial lighting complement each other and save electricity; zero-pollution construction and recyclable materials create zero-carbon park supporting buildings.

(4) Smart Adaptation Innovation

Smart equipment interfaces are reserved for quick connection to smart lighting, smart security, footfall analytics, online booking, and other systems, fitting smart-park upgrade needs and fusing "modular buildings + smart services."

VI. Project Benefits: Multidimensional Value and Long-Term Empowerment (1) Social Benefits

Improve sports park service functions, raise public fitness service levels, and enrich citizens' leisure life;

Create a demonstration of regional culture fused with modern architecture, showcasing Ordos urban vitality and cultural charm;

Adopt green, low-carbon construction to lead urban public buildings toward greener, more industrialized development.

(2) Economic Benefits

Short construction cycles and lower costs sharply cut investment and shorten capital recovery;

Flexible space and diverse formats raise commercial value and operating returns;

Low later O&M cost and recyclability maximize whole-life economic benefits.

(3) Operating Benefits

Rapid commissioning connects promptly with park operations and meets citizen and visitor service needs;

Elastic, adjustable space fits format upgrades, events, and footfall changes for long-term operating needs;

Minimal construction disruption keeps the park open and operations continuous.

VII. Conclusion

The Ordos Sports Park supporting project uses modular prefabricated buildings as its vehicle and the fusion of regional culture with modern technology as its core. It fully resolves the traditional building pain points of "long cycles, high cost, heavy pollution, and inflexibility," achieving multiple goals: design intent delivered, construction efficiency raised, quality standards tightly controlled, cost-benefit optimized, and cultural value highlighted.

From the flowing lines of the khata to the bold outlines of modules, from the cultural depth of Mongolian totems to the tech fashion of the sports park, from precise factory production to rapid on-site assembly—this project is not only a fully functional supporting building, but also a vivid practice of modular building industrialization, modern expression of regional culture, and end-to-end integrated construction.

Looking ahead, as modular building technology keeps upgrading and integrated models spread widely, such efficient, green, flexible, high-quality building forms will become mainstream choices for urban public amenities, cultural and sports facilities, and commercial spaces—injecting fresh vitality into urban renewal, public fitness, and cultural inheritance.