SV-M30 is designed for large solar farms, commercial rooftops and difficult terrain. A 30 kg-class rated payload works with autonomous routes and cleaning equipment to cover approximately 900-1000 m² in 15 minutes under reference conditions. Actual output varies with panel layout, soiling, wind and water supply.
This edited demonstration illustrates the cleaning method and equipment arrangement. A verified filming date, customer identity and complete operating records are not supplied; the clip does not establish cleaning productivity or project acceptance.
Solar-cleaning productivity depends on flight, water supply and site organization together. The reference figure of approximately 900-1000 m² in 15 minutes is not a full-day production rate: relocation, refilling, obstacles and soiling all affect progress. A representative trial area helps establish workable coverage and acceptance criteria.
Final configuration depends on operating conditions and the agreed specification.
A cleaning solution combines aircraft, cleaning payload, water supply, mission planning and site organization. Suitable paths and spray coverage can reduce repeated passes, but results depend on soiling, surface material, water quality and settings. Define the cleaning objective before matching equipment and process.
Survey array or façade dimensions, materials, joints and obstacles; confirm power, water and exclusion areas. Check permitted cleaning methods for PV modules. For façades, assess nozzle reaction, hose mass and corners. Validate reference productivity on a representative trial area.
Begin with a low-risk trial area and verify water delivery, hover stability, standoff and coverage before adjusting path and speed. Settings must suit the surface or module manufacturer’s requirements. Define withdrawal routes and ground-team roles for water loss, power loss or changing wind.
Record before-and-after images, residual soil and surface condition for acceptance. Track flight, refilling, relocation and setup separately. After work, flush filters and nozzles, inspect hoses and electrical connections, and dry as required. Evaluate productivity using total working time, not spray time alone.
Final configuration depends on operating conditions and the agreed specification.
| Model | SV-M30 |
|---|---|
| Category | Industrial drones |
| Reference cleaning rate | Approx. 900-1000 m² / 15 min under reference conditions |
| Motor-to-motor diagonal | 2050 mm |
| Unfolded dimensions | 1570 × 1570 × 715 mm |
| Folded dimensions | 845 × 860 × 775 mm |
| Airframe mass | 36 kg |
| Propulsion configuration | 4 motors; maximum output per motor 7900 W |
| Rated payload | 30 kg |
| Propeller | 43 × 13.5 in; carbon-fibre composite |
| Route speed | 0.5-25 m/s |
| Operating height | Adjustable 1-1000 m; actual limits depend on local regulations and conditions |
| Flight and route functions | Altitude hold, position hold, autonomous routes and return-to-home; waypoints, obstacle zones and route correction |
Documentation covers dimensions, performance data and operating requirements. Contact Mr. Liu for selection advice or after-sales support.
Final configuration depends on operating conditions and the agreed specification.
SV TECH / PRODUCT ENGINEERING
Existing selection guides are retained; complete operating chapters are added. Chinese and English controller procedures differ; use the procedure confirmed for the fitted controller.
Cleaning, communications, lighting and observation have different payload, power and control requirements. Describe integration through interfaces and a complete mission budget, rather than combining independent maximum figures.
Plan SV-M30 solar-cleaning work around the panel manufacturer’s permitted process, array layout and water logistics. The supplied photos add folded/unfolded airframe views; the operating documents support configuration review.
Documents and engineering resources ↗ · All recognition and source images ↗
