Blog
Release date:Feb 12, 2026
Share:
Desert and Gobi regions are some of the most challenging places on earth to build a modular camp, with extreme heat, strong winds, and frequent sandstorms directly impacting safety, comfort, and lifecycle cost. This article explains how to design Desert & Gobi modular camps that stay cool, resist sand and dust, and remain stable on loose sandy or gravel foundations, with real project experience from the Middle East and North Africa.
Modular camps allow EPC contractors, oil and gas owners, and mining operators to set up safe accommodation and working facilities in remote deserts within weeks instead of years. Prefabrication in factories shortens on-site construction time, reduces water demand for concrete, and lowers labor exposure to heat and sandstorms.
A well-designed modular camp for desert or Gobi conditions should achieve three goals: reduce indoor temperature and solar gain, block sand and dust from entering the building and MEP systems, and ensure long-term structural safety on weak soil with high wind speeds.

In Desert & Gobi zones, daytime temperatures can easily exceed 45–50 °C, and the combination of strong solar radiation and low humidity makes thermal design critical for any modular camp. Desert modular container houses developed for the Middle East region typically adopt high-performance envelopes with overall heat transfer coefficients as low as about 0.36 W/m²·K for walls and roofs to significantly reduce cooling load.
Key insulation strategies for desert and Gobi modular camps include:
Thick, high-density sandwich panels Wall and roof panels often use rock wool or PU/PIR cores with increased thickness (for example 75–100 mm) to lower U-values and delay heat transfer into the interior. Panel joints are designed with tongue‑and‑groove or double-lap structures to minimize thermal bridges and air leakage.
Cool roof design Light-color coated steel sheets with high solar reflectance are used on the outer roof skin to reflect direct radiation and reduce surface temperature. In some Desert & Gobi configurations, a ventilated roof cavity or secondary shading roof is added above the modular units to create an air buffer that removes heat before it reaches the main roof panel.
Optimized glazing and shading Window area is controlled, and low‑E glass or double glazing is used in offices and control rooms to reduce heat gain while maintaining daylight. External shading devices, roof overhangs, and orientation planning ensure that main window elevations avoid direct afternoon sun in summer.
Efficient HVAC integration Desert modular camps usually combine high‑efficiency split or packaged AC units with well‑sealed building envelopes so that indoor temperatures stay within comfortable ranges without excessive energy use. Indoor corridors and centralized mechanical rooms are often used in large camps to protect equipment from sand and heat and to simplify maintenance.
A typical example is the “Desert Container House” solution developed for Middle East projects, where upgraded insulation and reflective finishes significantly reduce the cooling energy required per person compared with standard container housing in temperate climates.

Sand and dust can damage equipment, clog filters, and quickly make living areas uncomfortable if protection measures are not built into the modular camp from the beginning. Desert and Gobi container houses are therefore designed not only as structural units but as part of a complete sand‑control system at camp level.
Effective sand and dust protection for modular camps includes:
Airtight structural connections The container house frame is located on the inner side of the wall and roof panels, and panels are seamlessly connected at the top to improve sealing performance. This reduces gaps where sand can blow in during storms and also improves thermal performance.
Sealed openings and graded filtration Door and window systems use high‑quality seals, threshold details, and sometimes sand‑proof vestibules at main entrances. For fresh air systems, multi‑stage filtration (coarse + fine) and easily maintainable filter boxes are positioned where maintenance staff can access them without full exposure to storms.
Sand‑resistant layout planning At camp planning level, buildings are arranged so that non-critical structures (such as parking sheds and some storage) form the first “sand barrier,” while accommodation and key technical rooms are located behind. Rows of modular buildings can be staggered to reduce wind acceleration between units and to create calmer courtyards.
Landscape and fencing as sand shields Perimeter fences or walls, often around 2–2.5 m high, can be used to reduce direct sand impact on the first row of buildings. In some regions, windbreak belts or artificial planting (where water supply is available) are introduced to stabilize nearby sand and reduce dust at pedestrian level.
Over the life of a modular camp, these measures greatly reduce maintenance work on doors, windows, and HVAC equipment and keep indoor environments clean even after repeated sandstorms.
Unlike urban sites, Desert & Gobi projects often sit on loose sand dunes, semi‑desert gravel layers, or mixed Gobi surfaces with poor bearing capacity and large settlement potential. For modular camps, this means that both the foundation system and the wind‑resisting design must be tailored to these geotechnical conditions to avoid differential settlement and structural damage.
Desert and Gobi modular “boxes” (Desert Box and Gobi Box container houses) typically adopt the following foundation and wind design strategies:
Flexible, fast-deploying foundations Depending on soil conditions, modular camps may use reinforced concrete strip or pad foundations, precast blocks, or steel pile systems to distribute loads and reduce settlement risk. In Gobi regions where a shallow gravel‑cemented layer exists, foundations are optimized to anchor into this bearing layer while minimizing earthwork.
Integrated floor beams and lifting points The steel structure of the container house is designed as an integral frame with reinforced bottom beams, so that loads transfer evenly to the foundation pads and re‑leveling is possible if the soil settles over time. Standardized corner castings and lifting points also allow temporary relocation or adjustment when camp phases change.
High wind-resistance design Many large engineering camps are designed for wind speeds equivalent to at least level 10 on the Beaufort scale, even in inland areas. For Desert & Gobi camps, structural design considers higher basic wind loads, and connections between modular units and foundations are reinforced with anchor bolts and anti‑uplift details. The hot‑dip galvanizing and corrosion‑resistant coatings used on structural components ensure durability in dry, sand‑laden air.
Compact, aerodynamically efficient layouts From a planning perspective, rows of modular boxes are aligned with prevailing wind directions to reduce local suction and avoid “tunnel wind” between buildings. Service corridors and communal buildings can also be used as buffers to shield dormitories from the strongest wind zones.
Through careful foundation and wind design, Desert Box and Gobi Box modular units can offer stable performance over many years, even in areas with shifting sands and seasonal sandstorms.

Desert & Gobi modular camps are not theoretical concepts; they have been widely used in oil and gas, mining, and infrastructure projects across the Middle East, North Africa, and other extreme environments. Such projects demonstrate how tailored modular camp solutions can support thousands of workers while meeting demanding safety and comfort standards.
Key experience and design patterns from Middle East and African projects include:
Large-scale refinery and energy camps In a 10,000‑person refinery phase II camp, all accommodation buildings adopted upgraded ZA and LZA room types with hot‑dip galvanized frames, indoor corridors, and high‑performance enclosure systems. The camp was completed within about 120 days from materials procurement to site handover, showing the time advantage of modular EPC delivery under challenging climatic conditions.
Coastal and port expansion camps in harsh climates In West Africa, an expansion camp serving a major container port used light steel villas and ZA series modular buildings as the core of its accommodation and office zones. The camp included sports, cultural, and living facilities on a site of approximately 27 hectares, with a 2.5 m high perimeter wall and controlled access for safety and environmental control. These design choices are highly transferable to coastal desert ports in North Africa and the Gulf region, where wind, salt, and sand must all be considered together.
Regionalized modular product lines To systematically serve different extreme environments, modular suppliers have developed regional product families such as “Gobi Container House” and “Desert Container House” with optimized U‑values, connection details, and corrosion protection for specific climates. For example, Gobi container houses focus on wind and dust resistance with U-values around 0.45 W/m²·K, while desert container houses for the Middle East emphasize stronger thermal insulation with U-values around 0.36 W/m²·K to reduce cooling demand.
These project cases show that with the right modular camp strategy—covering thermal design, sand protection, foundations, and wind resistance—owners can deploy reliable living and working environments quickly in some of the world’s most demanding desert and Gobi locations.
For EPC contractors and project owners planning new Desert & Gobi modular camps, success depends on integrating climate‑specific engineering into every layer of the design. By combining high‑performance envelopes, sand and dust protection, robust foundations, and proven layouts from Middle East and African projects, modular camps can deliver safe, sustainable accommodation even in the hottest, windiest deserts.
When “modular camp” is treated not just as a standard container house cluster but as an engineered system tuned to local temperature, wind, and soil conditions, the result is lower lifecycle cost, higher worker comfort, and faster, lower‑risk project delivery across desert and Gobi regions worldwide.
Scan the QR code to follow