We design and implement passive cooling systems that reduce energy consumption while maintaining comfortable indoor temperatures throughout the year.
Complete evaluation of your property's existing ventilation patterns using thermal imaging and air velocity measurements. We identify pressure zones, stagnant areas, and optimal window placement to maximize cross-ventilation. Includes detailed report with wind rose analysis specific to your location and recommendations for immediate improvements without major renovations.
Engineering of vertical ventilation shafts that leverage temperature differences between floors. We calculate optimal shaft dimensions, inlet and outlet sizes based on your building height and floor plan. Service includes structural integration planning, material specifications for heat-resistant ducting, and coordination with existing architecture to ensure seamless installation and maximum thermal buoyancy effect.
Strategic planning for operable window placement and sizing to capture prevailing winds. We analyze solar orientation, privacy requirements, and security needs while maximizing airflow potential. Includes specifications for louvered windows, casement configurations, and automated opening systems. We provide detailed drawings showing exact dimensions, hardware requirements, and installation sequences for contractors to follow during implementation.
Design and construction of glazed vertical shafts that use solar heat to drive air movement. We specify glass types with appropriate solar heat gain coefficients, insulation for adjacent walls, and intake vent sizing. System includes temperature monitoring sensors and adjustable dampers for seasonal control. Our installations typically achieve 15-25 air changes per hour during peak sun exposure.
Integration of internal courtyards or atriums to create natural air circulation paths through your building. We design dimensions, landscaping elements, and water features that enhance evaporative cooling. Service covers structural modifications, drainage systems, and plant selection for optimal microclimate creation. Includes computational fluid dynamics modeling to predict airflow patterns and temperature reduction potential before construction begins.
Strategic placement of concrete, brick, or stone elements that absorb daytime heat and release it slowly during cooler evening hours when ventilation is most effective. We calculate required mass volumes, optimal material densities, and surface area exposure. Includes specifications for night purge ventilation schedules and automated control systems that open vents when outdoor temperatures drop below indoor levels.
Traditional passive cooling structures adapted for modern buildings. We engineer towers that capture high-altitude winds and direct them downward into living spaces. Design includes directional scoops, internal baffles for air distribution, and evaporative cooling pads at air intake points. Our wind towers are sized according to building volume and occupancy levels, with typical installations reducing indoor temperatures by 4-7 degrees Celsius.
All services include post-installation performance verification and a comprehensive maintenance guide. Prices are for standard residential properties up to 250 square meters. Larger commercial projects quoted separately. Site visits within Singapore city center included; additional travel charges apply for locations beyond 25km radius.
We have designed and implemented passive cooling systems across Singapore, helping homeowners reduce energy costs while maintaining comfortable indoor temperatures through strategic airflow design.
A three-story terrace house received a complete ventilation redesign featuring cross-ventilation corridors and strategically positioned windows. The system uses stack effect principles to draw cool air from the ground level while expelling warm air through roof vents, reducing indoor temperatures by 4-6°C during peak hours.
This 280 square meter office space now operates with 70% less air conditioning through a combination of operable clerestory windows, thermal mass cooling, and wind catchers. The design incorporates automated louvers that respond to temperature sensors, maintaining comfort for 45 employees while cutting electricity bills by S$1,800 monthly.
Located 800 meters from the coastline, this property takes advantage of sea breezes through carefully angled window placements and a central atrium. The ventilation system includes motorized skylights that open automatically based on indoor temperature readings, creating a continuous airflow path that keeps the home naturally cool throughout the day.
A heritage shophouse transformed into a modern workspace while preserving its architectural character. We installed vertical ventilation shafts, restored original air wells, and added adjustable louvered panels. The narrow building now benefits from enhanced cross-ventilation, with air movement measured at 0.8-1.2 meters per second during typical weather conditions.
This single-story bungalow features a comprehensive passive cooling approach with solar chimneys, shaded verandas, and high-performance insulation. The owners report comfortable living conditions without air conditioning for 8-9 months annually. Strategic landscaping with mature trees provides additional cooling through evapotranspiration and wind channeling.
A 450 square meter workshop now maintains acceptable working temperatures through roof-mounted wind turbines, high-level exhaust vents, and reflective roofing materials. The system handles heat from machinery and equipment while providing fresh air circulation for 12 workers. Temperature reduction of 5-7°C compared to pre-renovation conditions has improved productivity and reduced heat-related complaints.
Real experiences from homeowners across Singapore who have implemented natural cooling solutions in their properties
All reviews are from verified clients who have completed projects with Cleanplanpaths. Individual results may vary based on property characteristics, orientation, and local climate conditions. Natural ventilation effectiveness depends on factors including building design, surrounding environment, and prevailing wind patterns in your specific location.