Industrial-YOLO detects defects at 120 FPS on edge hardware
New framework beats 98.5% accuracy while running real-time on Jetson Orin.
Automated surface defect detection is critical for quality control in high-speed manufacturing, but deploying deep learning models on resource-constrained edge hardware typically introduces latency. A new paper by Emmanuel Ezeji Somtochukwu and Nitesh Rijal tackles this with Industrial-YOLO, an edge-optimized framework built on a fine-tuned YOLOv8 architecture. The framework incorporates target-specific optimizations via TensorRT and OpenVINO acceleration engines to bridge the gap between algorithmic complexity and hardware constraints.
In systematic benchmarks using the NEU surface defect database (steel sheets) and MVTec AD dataset, supplemented with custom automotive manufacturing extensions (scratches, pits, inclusions), Industrial-YOLO achieved a high-velocity inference speed exceeding 120 FPS on the NVIDIA Jetson Orin platform while maintaining an exceptional mean Average Precision (mAP) of 98.5%. The system demonstrated robust, zero-latency performance when deployed directly onto an active automotive assembly line, offering a scalable blueprint for next-generation automated optical inspection systems. This work provides a practical path to real-time, on-device quality control without cloud dependency.
- Industrial-YOLO achieves 120+ FPS on NVIDIA Jetson Orin with 98.5% mAP using TensorRT/OpenVINO optimizations
- Benchmarked on NEU steel defects and MVTec AD datasets plus custom automotive flaws (scratches, pits, inclusions)
- Deployed on an active assembly line with zero-latency performance, enabling fully edge-based real-time inspection
Why It Matters
Enables real-time, accurate defect detection on edge hardware for manufacturing, reducing reliance on cloud and latency.