How to Customize Mobile Toilets in Scenic Areas
The customization of mobile toilets in scenic areas requires comprehensive planning from multiple dimensions, including site selection and layout, functional design, environmental protection technology, structural materials, sanitation treatment, and maintenance and operation. The specific steps are as follows:

1. Site Selection and Layout Planning
Optimize the layout based on tourist movement patterns. Set up a toilet every 500-800 meters along the main sightseeing routes, and shorten the distance to 300-500 meters in high-traffic areas such as entrances and intersections of scenic spots. The toilets should be visually isolated from the main landscapes using greenery or terrain features, and be located close to rest areas but at a distance of 10-15 meters to avoid odor interference. The passageway width should be ≥1.2 meters, the slope ≤1:12, and equipped with night lighting (illuminance ≥30 lux) and non-slip floors to ensure barrier-free passage safety.
2. Modular Functional Design
- Basic Functional Areas: Male toilets should be configured with a ratio of 1 squat toilet to 3 urinals, while female toilets should have a ratio of 1 squat toilet to 1 sit toilet. Accessible toilets should be equipped with handrails, emergency call buttons, and low-level washbasins.
- Smart Upgrades: Optional sensor-based flushing systems (water-saving rate ≥40%), smart ventilation systems (adjusting air speed based on foot traffic), and occupancy displays to reduce queuing time.
- Special Scenarios: Baby care rooms should be equipped with baby changing tables, bottle warmers, and independent air conditioning. Emergency power supplies should support at least 8 hours of operation. Epidemic prevention configurations include touchless hand sanitizer dispensers and ultraviolet disinfection lamps.
3. Integration of Environmental Protection Technologies
- Ecological Treatment: Adopt microbial degradation technology (treatment efficiency ≥90%) or solar power supply (daily power generation ≥5kWh per toilet).
- Water-Saving Solutions: Waterless urinals can save approximately 100 tons of water per toilet annually. Low-flow flushing systems should use ≤4 liters per flush for squat toilets and ≤2 liters per flush for urinals.
- Material Selection: The main structure should be made of galvanized steel plates or fiberglass-reinforced plastics (corrosion resistance grade ≥A). Surface treatments can include fluorocarbon coatings (weather resistance ≥15 years) or simulated stone veneers to blend in with the scenic area's style.
4. Customization of Structure and Materials
Select structural stability solutions based on climatic conditions: Light steel or stainless steel frames should meet wind resistance requirements, with wall thickness and welding processes adapted to strong winds in grasslands or severe cold in Northeast China. Insulation layer design, ventilation systems, and anti-corrosion treatments (spray coating/galvanizing) should ensure comfort and equipment durability in extremely cold or high-humidity environments.
5. Selection of Sanitation Treatment Technologies
Choose technological solutions based on water resource conditions, environmental protection requirements, and maintenance costs: Dry toilets, packing toilets, or biodegradation technologies are preferred for water-scarce grassland scenic areas or nature reserves. In areas with sufficient water resources, recirculating water flushing technologies can be selected, with an assessment of associated cleaning and transportation costs.
6. Maintenance and Operation Recommendations
- Cleaning Standards: Clean at least three times a day, with inspections every two hours during peak periods, using neutral detergents (pH 6-8).
- Consumables Management: Maintain a stock of ≥2 rolls of toilet paper per squat toilet, ≥500ml of hand sanitizer per dispenser, and replace garbage bags every two hours during peak periods and every four hours during off-peak periods.
- Data Monitoring: Install foot traffic counters to optimize cleaning schedules and record water and electricity consumption data to continuously reduce operation and maintenance costs.




