Deploying deep learning-based object detection models on low-power edge AI SoCs presents unique challenges, as real-world performance is influenced by more than just theoretical compute power. This study conducts a comprehensive benchmarking analysis to examine the scalability, efficiency, and real-time feasibility of object detection models in constrained edge environments. Our findings reveal that inference latency does not scale predictably with model complexity, as factors such as memory bandwidth, multi-core scheduling inefficiencies, and data movement bottlenecks significantly impact performance. Moreover, multi-core acceleration does not always yield proportional speedups, highlighting the need for better workload distribution strategies. While low-power SoCs show potential for real-time AI applications, achieving efficient deployment requires a holistic optimization approach that balances model architecture, hardware utilization, and inference acceleration techniques. These insights contribute to the broader understanding of deep learning deployment on embedded AI hardware and highlight key directions for future advancements in edge AI optimization.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Challenges and Benchmarking of Object Detection Models on Edge AI SoCs

  • Chang Kong,
  • Peng Mo,
  • Tao Zeng,
  • Qiuming Luo,
  • Rui Mao

摘要

Deploying deep learning-based object detection models on low-power edge AI SoCs presents unique challenges, as real-world performance is influenced by more than just theoretical compute power. This study conducts a comprehensive benchmarking analysis to examine the scalability, efficiency, and real-time feasibility of object detection models in constrained edge environments. Our findings reveal that inference latency does not scale predictably with model complexity, as factors such as memory bandwidth, multi-core scheduling inefficiencies, and data movement bottlenecks significantly impact performance. Moreover, multi-core acceleration does not always yield proportional speedups, highlighting the need for better workload distribution strategies. While low-power SoCs show potential for real-time AI applications, achieving efficient deployment requires a holistic optimization approach that balances model architecture, hardware utilization, and inference acceleration techniques. These insights contribute to the broader understanding of deep learning deployment on embedded AI hardware and highlight key directions for future advancements in edge AI optimization.