top of page

Harness the Power of IoT in Solar Fields

solar.jpg

The Internet of Things (IoT) is the network of physical devices embedded with electronics, sensors, software, and connectivity which enable these objects to connect and exchange data with each other. This data can then be used to monitor performance or provide feedback on operations in real-time. In a solar field environment, this technology allows us to gather information at a much faster rate than before while also providing valuable insights into the overall operation of the equipment.

Overview of IoT Use Cases in Solar Fields:


In solar fields, the possibilities for utilizing IoT are numerous;

Ranging from monitoring energy production levels to tracking asset maintenance schedules to predicting when an issue may arise in order to prevent any potential problems from occurring down the line. For example, using connected sensors deployed throughout a solar field can help operators and engineers to identify areas where more energy could be generated if lighting or shading conditions were adjusted accordingly, as well as keep track of how various components are performing over time and alert them when it is time for maintenance or repair work. Additionally, leveraging advanced analytics can allow engineers
 to not only uncover hidden patterns within their datasets but also optimize strategies for maximum efficiency allowing them to get more out of their resources and make better decisions. The use of IoT in solar fields offers the potential for improved energy efficiency by allowing for better data collection and analysis. This means that real-time monitoring can be used to optimize panel placement, tilt angles, and other factors that determine the amount of sunlight being converted into electricity. With this information, field operators can make adjustments of the panels as needed to maximize energy output from the field.

Improved Maintenance

IoT technology also facilitates maintenance practices in solar fields by providing real-time monitoring of equipment performance and system health indicators. This allows operators/Engineers to identify any issues proactively and address them before they become a major problem, potentially saving time and cost on repairs or replacements. Additionally, predictive analytics can be used to accurately predict when certain components will need maintenance or repair so that preventive measures can be implemented ahead of time to avoid any costly downtime due to unexpected breakdowns.

Enhanced Reliability

Implementing an IoT solution in a solar field will provide enhanced reliability through remote monitoring capabilities which enable data collection from all areas of the site including those not easily accessible with traditional methods such as rooftop panels or high voltage lines where manual inspection is difficult or impossible without specialized safety procedures being followed first. With this information available remotely at any time it provides much easier access for both troubleshooting existing problems but also spotting problems before they arise which helps ensure system uptime even under challenging conditions such as extreme weather events or extended periods without sunlight due to clouds or storms passing overhead. 

Challenges of Implementing IoT in Solar Fields: 

Cost

The cost of technology is a major obstacle to implementing IoT in solar fields. Many technologies associated with the IoT are expensive and require significant infrastructure investments. This can be prohibitively costly for some companies. 

Data Collection and Analysis 

Data collection and analysis is also a key challenge when utilizing IoT devices in solar fields since they generate large amounts of data that needs to be processed quickly and accurately so decisions can be made based on current conditions at any given moment in time. It’s important for organizations using such technologies to understand how best to collect this data, cleanse it, store it properly, analyse it effectively, and use machine learning algorithms where applicable so they can make informed decisions in real-time about how their energy sources should be managed efficiently.

D4C offers solutions like, 
 

  • Real-Time monitoring of the solar fields
     

  • Environmental monitoring
     

  •  Panel theft prevention
     

  • Predictive analysis
     

  •  Auto/manual Panel actuation

  • OEE mapping  

In order to make progress toward greener energy sources, we must embrace new technologies such as IoT that can help us overcome existing limitations. We invite you to act today by exploring how your organization or business can benefit from utilizing IoT in solar fields.

REFERENCE: 


[1] Olivier Amiot, “The Future of IoT in Solar Energy: How Innovative Technology is Expanding the Solar Sector,” Sierra Wireless, 7 Nov 2019. [Online]. Available: https://www.sierrawireless.com/iot-blog/the-future-of-iot-in-solar-energy-how-innovativetechnology-is-expanding-the-solar-sector/.

[
2] “IOT BASED SMART SOLAR PANEL MONITORING – THE FUTURE OF ENERGY GENERATION,” Novergy, [Online]. Available: https://www.novergysolar.com/iot-based-smart-solar-panel-monitoring-future-energy-generation/.

[3] Pratik R, “A Guide To IoT-Based Solar Power Production Monitoring,” Intuz, 20 May 2022. [Online]. Available: https://www.intuz.com/blog/iot-based-solar-power-production-monitoring.

[4] Max Burkhalter, “How the Internet of Things transformed the solar industry,” perle, october10 2021. [Online]. Available: https://www.perle.com/articles/how-the-internet-of-things-transformed-the-solar-industry-40192736.shtml.

[5] “HOW IOT IS TRANSFORMING SOLAR PANEL MONITORING,” Robustel, [Online]. Available: https://www.robustel.com/en/energy/how-iot-is-transforming-solar-panel-monitoring/

bottom of page