Solar Tracking System with IoT

Through the integration of mechanical tracking and connected intelligence, IoT-based solar tracking systems can significantly enhance photovoltaic energy capture and enable smarter operations and maintenance. This review covers recent developments in single- and dual-axis trackers, sensor and actuator hardware, and edge-to–cloud IoT stacks supporting real-time telemetry, remote control of devices, as well as predictive maintenance. Both are supported by open source software and cloud computing technologies. In this paper, we compare open-loop astronomical algorithms and AIoT controllers with sensor-driven closed-Loop approaches (e.g, LDR/photodiaode feedback), considering the tradeoffs between point accuracy, "actuation energy", and lifecycle costs. The standard outcome of performance analyses demonstrates that fixed mounts offer an average increase of 15-30% in single-axis performance (with bifacial modules providing additional benefits), while IoT-enabled analytics reduce downtime and enhance O&M efficiency by anomaly detection and targeted interventions. Utility-scale farms, residential off-grid systems, and agri-food applications such as solar-powered drying and cold storage are all possible applications where increased availability directly reduces post-harvest loss. There are still some obstacles to overcome, including mechanical reliability, site-specific economics, and cybersecurity risks caused by networked control.

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Publication Details

Published
2025-11-10
DOI
https://doi.org/10.38124/ijisrt/25nov108
Primary Topic
Solar Radiation and Photovoltaics
Type
article
Field-Weighted Citation Impact
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article

Solar Tracking System with IoT

Satyaranjan Behera
Solar Radiation and Photovoltaics
article

Solar Tracking System with IoT

Satyaranjan Behera
article en

Abstract

Through the integration of mechanical tracking and connected intelligence, IoT-based solar tracking systems can significantly enhance photovoltaic energy capture and enable smarter operations and maintenance. This review covers recent developments in single- and dual-axis trackers, sensor and actuator hardware, and edge-to–cloud IoT stacks supporting real-time telemetry, remote control of devices, as well as predictive maintenance. Both are supported by open source software and cloud computing technologies. In this paper, we compare open-loop astronomical algorithms and AIoT controllers with sensor-driven closed-Loop approaches (e.g, LDR/photodiaode feedback), considering the tradeoffs between point accuracy, "actuation energy", and lifecycle costs. The standard outcome of performance analyses demonstrates that fixed mounts offer an average increase of 15-30% in single-axis performance (with bifacial modules providing additional benefits), while IoT-enabled analytics reduce downtime and enhance O&M efficiency by anomaly detection and targeted interventions. Utility-scale farms, residential off-grid systems, and agri-food applications such as solar-powered drying and cold storage are all possible applications where increased availability directly reduces post-harvest loss. There are still some obstacles to overcome, including mechanical reliability, site-specific economics, and cybersecurity risks caused by networked control.

Openalex Percentile: Top 82%
Solar Radiation and Photovoltaics
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