Trends and challenges for photovoltaic farm service

Trends and challenges for photovoltaic farm service

New trends and challenges for solar photovoltaic (PV) farm service companies (O&M) in the face of growing AI influence and cyber security threats

Photovoltaic farms, one of the pillars of the energy transition, require constant monitoring, maintenance and repair to operate at optimal performance levels. In this context, O&M (Operations and Maintenance) services are key to maximizing the return on investment in PV plants. However, technological changes, including the growing use of artificial intelligence (AI) and cyber-security challenges, are setting new directions and introducing additional responsibilities for companies operating in the industry.


AI in O&M services: modern solutions and benefits

Artificial intelligence, although mainly associated with futurology a decade ago, has become one of the cornerstones of modern O&M services. Its application significantly improves the efficiency of photovoltaic farm management, minimizes downtime, and allows for more precise fault forecasting. Let’s take a closer look at how AI affects various aspects of servicing photovoltaic farms.


Real-time monitoring: a breakthrough in photovoltaic farm surveillance. Trends and challenges for photovoltaic farm service.

One of the most important applications of AI in the O&M sector is the continuous, real-time monitoring of photovoltaic farms. The traditional approach has been to periodically inspect and manually check the health of individual components. With AI, this process has been automated and the analysis of data from sensors and SCADA systems has become much more precise.

AI-supported systems enable:

  • Rapid fault detection – AI can identify drops in panel performance that might not be noticeable to the human eye.
  • Dynamically adjust operating parameters – for example, by optimizing inverter performance to match real-time weather conditions.
  • Reduced energy waste – automatic notifications of problems allow service technicians to respond quickly and minimize downtime.

Example: A company servicing a 50 MW farm in Central Europe deployed AI algorithms to monitor modules and reduced average downtime by 30%, which translated into an increase in annual power generation revenue of several hundred thousand euros.


Predictive maintenance: saving time and costs. Trends and challenges for photovoltaic farm maintenance.

AI makes it possible to implement a predictive maintenance model, or predictive maintenance. By analyzing historical and current data, AI algorithms are able to predict which farm components are most likely to fail. This approach reduces the risk of unexpected failures and allows for better planning of maintenance activities.

The benefits of predictive maintenance are:

  • Lower repair costs – it is much cheaper to repair components before they are completely damaged.
  • Shorter downtime – scheduled maintenance work takes less time than emergency interventions.
  • Better management of human and material resources – companies can allocate personnel and spare parts more precisely.

Drones and AI-supported robots: the future of photovoltaic farm servicing. Trends and challenges for photovoltaic farm servicing.

Drones equipped with thermal imaging and AI cameras are becoming the standard for PV farm inspections. They are able to quickly and effectively identify damaged panels, hot spots or wiring faults. Cleaning robots that operate autonomously are also gaining popularity. Thanks to AI, they are able to optimize their work, adapting it to the specific conditions of a given farm.

Application examples:

  • Drone inspections – can cover up to several hundred hectares in a single day, significantly reducing costs compared to manual inspections.
  • Panel cleaning – robots can operate effectively even in harsh weather conditions, ensuring maximum module performance.

Cyber security: new challenges for O&M companies. Trends and challenges for photovoltaic farm service.

The digitization of PV farms, while necessary for their effective management, also introduces cyber security risks. Protecting critical infrastructure, operational data and control systems is becoming a priority.


Threats to SCADA and IoT systems. Trends and challenges for photovoltaic farm service.

SCADA systems and IoT devices, while extremely useful, are vulnerable to hacking attacks. Cybercriminals can exploit security vulnerabilities to:

  • Disrupt farm operations, causing downtime and financial losses.
  • Take control of key systems, which in extreme cases can threaten energy security.
  • Steal data, such as information on farm performance and technical parameters.

Ransomware and other attacks on the RES sector. Trends and challenges for photovoltaic farm service.

Increasingly, PV farms are becoming targets of ransomware attacks, where cybercriminals block access to systems and demand a ransom. The cost of such attacks can run into millions of euros, not to mention the loss of reputation.


Regulations and data protection. Trends and challenges for photovoltaic farm service.

Regulations such as RODO (GDPR) require companies to properly secure customer and user data. For the O&M sector, this means putting advanced procedures in place to protect information and IT systems.


How can O&M companies meet the challenges?

Investment in cyber security

Companies need to implement advanced security measures, such as:

  • Regular security audits.
  • Next-generation antivirus systems and firewalls.
  • Data encryption and backup procedures.

Employee training. Trends and challenges for photovoltaic farm service.

Staff education is the key to effective cyber security. Employees should be aware of threats and know how to respond to suspicious situations.

Automating service processes. Trends and challenges for photovoltaic farm service.

1. real-time monitoring and data analysis

Automation begins with the collection and processing of data from the PV farm. SCADA systems, IoT, and AI-supported management platforms make it possible:

  • Automatic monitoring of key parameters – voltage, current, panel temperature, inverter efficiency.
  • Analyze historical and current data – systems identify trends and point out potential problems.
  • Real-time notifications – in the event of an outage or performance degradation, automatic alerts are sent to technicians.

With automation, operators have full visibility into the operation of the farm without having to be physically present on site.


2. predictive maintenance (Predictive Maintenance)

Automation can predict potential failures by analyzing sensor data. AI systems can automatically:

  • Indicate components that need repair before they are damaged.
  • Plans service schedules to avoid unexpected downtime.
  • Reduce costs through optimal resource management.

For example, an inverter operating under unstable voltage conditions can be automatically flagged as needing to be checked before its failure affects the performance of the entire farm.


3. automation of drone inspections

Drones equipped with thermal imaging, multispectral and AI cameras are able to automatically:

  • Scan farm surfaces for damaged panels (e.g., cracks, hot spots).
  • Locate problems with wiring, connectors or inverters.
  • Report inspection results in real time, generating damage maps.

Drone inspections are much faster and cheaper than manual inspections, and the results are more precise.


4. use of robots for cleaning panels

Cleaning photovoltaic panels is key to maintaining their maximum efficiency. Cleaning robots, operating autonomously, can:

  • Work in programmed cycles – management systems determine when and which sections of the farm need cleaning.
  • Adapt cleaning methods to the type of dirt – such as sand, dust or snow.
  • Monitor the effectiveness of their own actions – thanks to sensors and AI, they can check whether the cleaning process was effective enough.

These robots operate regardless of the weather, and their implementation significantly reduces human labor costs.


5. automation of reporting

Collecting and analyzing data is only part of automation – generating reports is equally important. Automated reporting systems:

  • They generate detailed monitoring reports – including information on farm performance, detected problems and service actions.
  • They send reports directly to farm owners – for example, in the form of monthly statements.
  • They create forecasts and recommendations – systems can suggest actions based on analysis of historical data and trends.

6 Remote upgrades and diagnostics. Trends and challenges for photovoltaic farm service.

SCADA systems and IoT devices enable remote:

  • Updating the software of inverters, sensors or management systems.
  • Performing diagnostics – technicians can remotely check the condition of equipment and identify problems, allowing for faster response.

Remote diagnostics eliminates the need for frequent service visits, reducing operating costs.


7. use of optimization algorithms

Automation also includes real-time optimization of farm operations. Optimization algorithms can:

  • Adjust the settings of photovoltaic panels (e.g., in installations with solar trackers – trackers) to maximize yields.
  • Regulate the operation of inverters according to energy demand and weather conditions.
  • Minimize transmission losses through dynamic network energy management.

8 Smart energy storage and management. Trends and challenges for photovoltaic farm service.

Integration of photovoltaic farms with energy storage is becoming standard. Automation makes it possible:

  • Manage storage loading and unloading – in a way that optimizes farm capacity and network demand.
  • Analyzing energy price data in the market – the system can automatically decide when to sell energy to maximize profits.

9 Automatic management of service requests. Trends and challenges for photovoltaic farm service.

CRM systems and service request management platforms can automatically:

  • Record customer requests – e.g., problem information sent directly through the SCADA system.
  • Assign tasks to service technicians – depending on their location, availability and specialization.
  • Monitor the progress of orders – ensuring transparency for farm owners and customers.

Automation of service processes is the future of O&M in photovoltaic farms. Trends and challenges for photovoltaic farm service.

Through the use of AI, drones, robots and advanced management systems, companies can significantly reduce operating costs, increase efficiency and provide a higher level of service. In an era of increasing competition and customer demands, automation is becoming not only a competitive advantage, but also a necessity.


The growing use of AI and cyber-security challenges are changing the way PV farm service companies perform their services.

Adapting to new trends requires investment in technology, development of employee competence and implementation of advanced data protection procedures. Companies that take these steps will not only meet the expectations of the market, but also gain a competitive advantage by providing their customers with the highest level of O&M services.

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Lighthief is innovation, technology and science in the service of recycling photovoltaic panels and wind farms. The company's topics of interest touch on recovery and recycling in the broadest sense, mainly in the field of RES, or renewable energy sources.

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