Solar Panel Defect Detection Using Raspberry Pi And Machine Learning

The increasing global adoption of Photovoltaic (PV) systems highlights the need for efficient maintenance, as defects such as hotspots, microcracks, and delamination significantly reduce energy output and system lifespan. Manual thermal inspections are slow, subjective, and unsuitable for large solar installations. This work presents an automated, real-time defect detection system using thermal imaging and a lightweight YOLOv9-nano deep-learning model optimized for embedded deployment. The model was trained on a multi-class thermal dataset from Roboflow containing eight types of solar-panel anomalies, following a structured pipeline of preprocessing, augmentation, 50-epoch training, and inference evaluation. The system achieved approximately 94.5% mAP and an inference speed of around 28 FPS in CPU-based simulation, indicating strong suitability for Raspberry Pi 4 Model B deployment after optimization. The results demonstrate the system’s potential as a scalable, low-cost predictive-maintenance tool capable of early fault detection, improved operational reliability, and enhanced energy yield in PV installations.

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Publication Details

Journal
International Journal of Technology & Emerging Research
Published
2025-11-28
DOI
https://doi.org/10.64823/ijter.2507012
Primary Topic
Photovoltaic System Optimization Techniques
Type
article
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article

Solar Panel Defect Detection Using Raspberry Pi And Machine Learning

Mrs. Anushree R, Mahesh Veershetty, D Suprith, ABHISHEK NS et al.
International Journal of Technology & Emerging Research
Photovoltaic System Optimization Techniques
article

Solar Panel Defect Detection Using Raspberry Pi And Machine Learning

Mrs. Anushree R, Mahesh Veershetty, D Suprith, ABHISHEK NS, Srinivasa TV
article en

Abstract

The increasing global adoption of Photovoltaic (PV) systems highlights the need for efficient maintenance, as defects such as hotspots, microcracks, and delamination significantly reduce energy output and system lifespan. Manual thermal inspections are slow, subjective, and unsuitable for large solar installations. This work presents an automated, real-time defect detection system using thermal imaging and a lightweight YOLOv9-nano deep-learning model optimized for embedded deployment. The model was trained on a multi-class thermal dataset from Roboflow containing eight types of solar-panel anomalies, following a structured pipeline of preprocessing, augmentation, 50-epoch training, and inference evaluation. The system achieved approximately 94.5% mAP and an inference speed of around 28 FPS in CPU-based simulation, indicating strong suitability for Raspberry Pi 4 Model B deployment after optimization. The results demonstrate the system’s potential as a scalable, low-cost predictive-maintenance tool capable of early fault detection, improved operational reliability, and enhanced energy yield in PV installations.

International Journal of Technology & Emerging ResearchVol. 1(7)
Openalex Percentile: Top 73%
Photovoltaic System Optimization Techniques
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Solar Panel Defect Detection Using Raspberry Pi And Machine Learning — Mrs. Anushree R, Mahesh Veershetty, et al. · International Journal of Technology & Emerging Research (2025) | TGRS Research Map | TGRS