Public Transit
Bus Stop Cooling
Fine mist along the shelter edge improves comfort without directly spraying passengers.
Heat Stress Cooling
Heat stress is not only about air temperature—heat accumulation, airflow, and radiant load drive perceived discomfort and safety risk. We combine mist cooling with airflow guidance to focus cooling where people work, improving comfort and reducing heat-related incidents.
What you get
- Worker-zone focused cooling (no “spray everywhere”)
- Design aligned with heat sources and wind to avoid dampness and slip risk
- Safety-oriented long-run operation and maintenance planning
3-Step Process
Heat & airflow review
Locate hotspots, shading, wind and work zones
Cooling design
Plan mist points, coverage, and zoned control
Commissioning
Tune comfort vs humidity impact and set maintenance
Outcome Highlights
Thermal comfort
Improve perceived cooling (environment-dependent)
Targeted coverage
Focus on work areas to reduce waste
Smart control
Zoned timing to save water/energy
Safe operation
Mitigate wet-floor risk and ensure long-term stability
Suitable for
- High-heat process areas (furnace fronts, steel, foundry, forging)
- Outdoor hot work zones, loading/queue/waiting areas
- Sites aiming to reduce heat stress and improve productivity
Not recommended
- Areas requiring low humidity or zero-mist environment
- Sensitive electrical/precision equipment without isolation/protection
- Very high wind with no shelter (needs airflow control/shielding)
Where does the heat come from?
Industrial heat is often caused by concentrated equipment heat, roof radiation, and poor exhaust paths. Mapping heat sources and airflow helps deliver cooling where it matters.
- Sources: furnaces, heat treatment, boilers, casting areas
- Accumulation: high ceilings, recirculation corners, trapped hot air
- Impact: lower productivity and higher safety risk
Perceived vs measured temperature
Perceived heat depends on humidity, air speed, and radiant heat. Same measured temperature can feel very different—design should be centered on work positions.
- Low airflow: sweat evaporation slows, discomfort rises
- High radiation: near heat sources feels much hotter
- Focus: cooling + airflow at the work point
Engineering-based heat flow guidance
Misting must work with airflow; otherwise fog lingers and creates damp zones. We guide air and place points strategically.
- Placement: based on work zones, heat sources, prevailing wind
- Timing: automatic adjustment by schedule and temperature
- Protection: avoid sensitive electrical/product zones (site-dependent)
Worker-zone priority
We start with high-occupancy and long-dwell zones for the fastest safety and comfort ROI.
- Fixed stations: packing, loading, inspection points
- Rest zones: quick recovery areas
- Routes: reduce exposure when crossing hot zones
Long-duration safety
Long-running cooling needs water management, drainage, anti-slip measures, and predictable maintenance.
- Drainage/anti-slip planning
- Water quality and filtration to prevent clogging
- Routine inspection and consumable schedules
Representative Applications
Heat mitigation varies by site type. Bus stops, outdoor events, market walkways, hospitality, and sports venues all require different installation logic. Each card below has its own looping carousel and expandable image view.
Events
Outdoor Event Cooling
Suitable for temporary gatherings, queue zones, and dense visitor flow.
Markets
Night Market Cooling
Side-mounted misting is more realistic for narrow market walkways.
Hospitality
Outdoor Café Cooling
Improves comfort around semi-open seating zones.
Sports
Stadium Stand Cooling
Mist lines on edges and walkways improve spectator comfort.
Leisure
Music Festival Cooling
Useful for fast deployment in temporary event zones.
FAQ
Do we have to reduce the measured temperature?
The goal is to reduce perceived heat stress and heat load—not to chase a single temperature number.
Is it suitable for semi-outdoor spaces?
Yes. Design can be adapted to structural and airflow conditions.
Will it affect equipment operation?
Layouts are planned to avoid interfering with production equipment and workflows.
Can it reduce fatigue and heat illness risk?
It can effectively lower heat-stress indices and related risks when engineered properly.
Can it be implemented in zones?
Yes. Improvements can be phased and prioritized for worker zones.