إرشادات فحص وصيانة معدات تنظيف الألواح الشمسية

Rail-Type Photovoltaic Robot Inspection and Maintenance Guidelines

The first inspection of the rail-type photovoltaic robot should be carried out immediately after installation to ensure all systems are operating normally. Subsequent routine inspection cycles can be adjusted according to specific situations and needs; however, the following is generally recommended:

• Initial Inspection: Conducted immediately after installation.
• Daily Inspection: Conducted once a day to ensure normal operation of the robot’s systems.
• Weekly Maintenance Inspection: Conducted once a week for comprehensive maintenance and inspections to ensure the long-term stability and reliability of the equipment.
• Quarterly Inspection: Conducted every three months, focusing on the key components and system functions to ensure operation under different seasonal environmental conditions.
• Annual Inspection: Conducted once a year for a comprehensive performance evaluation and necessary repairs, ensuring reliability and safety for long-term operation.

معدات تنظيف الألواح الشمسية Daily Inspections

• Basic Function Checks
  • Confirm that all sensors (e.g., temperature, humidity, gas sensors) are functioning properly.
  • Check the signal strength of the communication module to ensure stable data transmission.
  • Verify the automatic charging functionality to ensure the robot can successfully return to the charging station.
• Environmental Adaptability Checks
  • Inspect the robot’s dustproof, waterproof, and moisture-proof capabilities.
  • Confirm the robot’s operation under high and low-temperature conditions.
• Inspection Task Execution
  • Ensure the robot performs automatic inspections along the preset paths and inspection targets.
  • Verify the operator’s ability to complete inspection tasks through remote control.

Weekly Inspections

• System Maintenance
  • Clean the robot’s surface, removing dust and dirt.
  • Inspect the mechanical components of the robot, such as drive wheels, support wheels, and guide wheels, to ensure there is no wear or damage.
  • Check the automatic charging socket and plug for proper contact.
  • Update the robot’s software system to ensure operation with the latest version.
• Function Tests
  • Retest the robot’s imaging monitoring functions to ensure the stability of the HD cameras and infrared thermal imaging devices.
  • Check the fire alarm/warning functionalities to ensure the sensors and algorithms are operating normally.
  • Verify meter reading functions to ensure accurate readings of various instrument data.
  • Inspect voice intercom functionality to ensure smooth communication between staff and the robot.

Quarterly Inspections

• Key Component Checks
  • Inspect drive devices, power supply devices, and detection devices in detail to ensure there are no failures.
  • Examine the wear condition of the tracks and replace or repair them if necessary.
  • Check the sensitivity and accuracy of sensors and calibrate them if necessary.
• Environmental Adaptability Testing
  • Conduct inspections under various weather conditions (e.g., sunny, rainy, snowy) to validate the robot’s environmental adaptability.
  • Check the robot’s climbing ability and wading depth to ensure it operates normally over complex terrain.
• Data Management
  • Examine the stability and reliability of data transmission to ensure inspection data can be uploaded promptly to the backend monitoring system.
  • Verify data management system functionalities to ensure accurate storage, analysis, and report generation.

Annual Inspections

• Comprehensive Performance Evaluation
  • Assess the overall performance of the robot, including mechanical, electrical, and software performance.
  • Check the robot’s lifespan and evaluate the wear condition of various components, replacing them as necessary.
  • Examine the robot’s safety performance to ensure safe operation under various extreme environments.
• System Optimization
  • Optimize the robot’s inspection paths and frequencies based on one year’s operation data.
  • Review the robot’s failure records, analyze common causes of failure, and propose improvement measures.
  • Update the robot’s algorithms and software to enhance the accuracy and efficiency of inspections.
• Training and Operation Manuals
  • Train operators to ensure they are familiar with the robot’s latest functionalities and operational methods.
  • Update the operation manual to ensure it reflects the robot’s current functionalities and operational processes.

By following these detailed inspection cycle arrangements, we can ensure that the rail-type photovoltaic robot remains in optimal working condition, providing reliable technical support for the inspection work of photovoltaic power stations.