This paper presents a thorough evaluation of three representative object detection models—YOLOv5s, SSD300, and Faster R-CNN—focusing on performance, efficiency, and benchmarking metrics. We assess each model’s accuracy (using mAP, precision, and recall), inference speed (FPS and derived boxes per second), and computational efficiency (including proposed metrics BPS and EAS). Experiments on standard datasets (COCO and VOC) demonstrate clear trade-offs: YOLOv5s achieves real-time processing (90 FPS, 37% COCO mAP), SSD300 balances speed and lower accuracy (58 FPS, 24% COCO mAP), and Faster R-CNN attains high accuracy ( 40% COCO mAP) with lower throughput (7 FPS). We apply composite metrics—Boxes per Second (BPS) and Energy-Accuracy Score (EAS)—to evaluate speed-accuracy-energy trade-offs. Real-world deployment implications are discussed, with practical insights for edge devices such as Raspberry Pi and Jetson Nano. This benchmarking framework supports application-specific detector selection in domains like surveillance, UAVs, and mobile vision

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Benchmarking the Trade-Offs in Object Detection: Accuracy, Speed, and Energy Efficiency

  • Abhnish Kumar,
  • Manan Wadhwa,
  • Dinesh Kalla,
  • Santhosh Chandra Konduru,
  • Chinmay Nandawat,
  • Moolchand Sharma

摘要

This paper presents a thorough evaluation of three representative object detection models—YOLOv5s, SSD300, and Faster R-CNN—focusing on performance, efficiency, and benchmarking metrics. We assess each model’s accuracy (using mAP, precision, and recall), inference speed (FPS and derived boxes per second), and computational efficiency (including proposed metrics BPS and EAS). Experiments on standard datasets (COCO and VOC) demonstrate clear trade-offs: YOLOv5s achieves real-time processing (90 FPS, 37% COCO mAP), SSD300 balances speed and lower accuracy (58 FPS, 24% COCO mAP), and Faster R-CNN attains high accuracy ( 40% COCO mAP) with lower throughput (7 FPS). We apply composite metrics—Boxes per Second (BPS) and Energy-Accuracy Score (EAS)—to evaluate speed-accuracy-energy trade-offs. Real-world deployment implications are discussed, with practical insights for edge devices such as Raspberry Pi and Jetson Nano. This benchmarking framework supports application-specific detector selection in domains like surveillance, UAVs, and mobile vision