
Solar panel cleaning
Start with SV-M30 and plan routes and work cycles around array layout, obstacles, water refill points and module cleaning requirements.
Deployment and acceptance checks ↗From cleaning drones and tethered platforms to propulsion and ground robots, SVTECH brings the platform, power supply, payload and operating workflow into one configuration, with clear criteria for selection, deployment and acceptance.

Solar arrays and tall façades require different flight paths, water arrangements and platforms. The right system architecture turns equipment capability into a consistent operating workflow.

Start with SV-M30 and plan routes and work cycles around array layout, obstacles, water refill points and module cleaning requirements.
Deployment and acceptance checks ↗
Start with T30/W30, coordinating the aircraft, tethered power, winch and water system with façade materials and site operating limits.
Deployment and acceptance checks ↗A tethered operation illustrates the approach. Plan the power and task chains together; confirm interfaces, power requirements and protection strategies in the project configuration.
Power source, conversion and site support
Length, tension and line losses
Propulsion, attitude and status monitoring
Payload configuration, workflow and acceptance
Start with the actual load and operating conditions. The platform is only the beginning: power, communications, mission equipment and maintenance also shape the configuration.
Combine a tethered aircraft, ground power, winch and observation, lighting or communications payloads. Confirm payload interfaces, continuous power, supply margin and control links, then agree procedures for power loss, lost communications and mission termination.
Match the aircraft, camera or task sensor, positioning and ground software to coverage and accuracy requirements. Define routes, data synchronization, processing formats and independent checkpoints so acquisition fits the customer's data workflow.
Configure the tracked chassis, remote operation, video link and task equipment as one robot system. Review terrain, passages, hose loads, radio coverage and recovery together, then define operator training, spares and acceptance checks.
Start with low-voltage A-series or high-voltage H-series motors, then match the controller, propeller or mechanical load and power chain. Use drawings, wiring guidance and available test data to define a prototype, then validate continuous operation over the full duty cycle.
Confirm the operating area, load, power supply, working duration and site constraints.
Match the platform, propulsion, payload, control links and ground equipment.
Confirm the configuration through prototype or site testing and define acceptance criteria and operating procedures.
Provide training, maintenance guidance, spare parts and support for future system upgrades.
Compare dimensions, supply voltage, torque and speed to select a servo for aircraft control surfaces, RC steering or robotic mechanisms. Each model includes performance at specific test voltages, mounting drawings and Chinese and English documentation to support integration.

Light aircraft control surfaces / compact mechanisms
Comparison voltage: 7.4 V
View product ↗
RC steering / control surfaces and mechanisms
Comparison voltage: 8.4 V
View product ↗
Robotic joints / high-load positioning
Comparison voltage: 16.8 V
View product ↗Tell us the task, payload, power supply, operating duration and destination. SVTECH can then discuss suitable platforms, interfaces and the next validation steps.
SV TECH / PRODUCT ENGINEERING
SV Tech’s product material presents cleaning and spraying as tethered-platform applications. This is a typical application plan covering site survey, mission equipment and water/material supply.
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.
A tethered platform can be configured for temporary communications, lighting and observation. Ground power supports airborne equipment, while results depend on payload, links and site conditions.
Documents and engineering resources ↗ · All recognition and source images ↗