RE-POSE: Synergizing Reinforcement Learning-Based Partitioning and Offloading for Edge Object Detection

TL;DR

RE-POSE is a novel framework that combines reinforcement learning-based partitioning with edge offloading to improve real-time object detection accuracy and latency on resource-limited edge devices.

Contribution

It introduces an RL-driven dynamic clustering algorithm and a parallel offloading scheme to optimize detection performance in edge environments.

Findings

Significantly improves detection accuracy.

Reduces inference latency.

Outperforms existing methods.

Abstract

Object detection plays a crucial role in smart video analysis, with applications ranging from autonomous driving and security to smart cities. However, achieving real-time object detection on edge devices presents significant challenges due to their limited computational resources and the high demands of deep neural network (DNN)-based detection models, particularly when processing high-resolution video. Conventional strategies, such as input down-sampling and network up-scaling, often compromise detection accuracy for faster performance or lead to higher inference latency. To address these issues, this paper introduces RE-POSE, a Reinforcement Learning (RL)-Driven Partitioning and Edge Offloading framework designed to optimize the accuracy-latency trade-off in resource-constrained edge environments. Our approach features an RL-Based Dynamic Clustering Algorithm (RL-DCA) that partitions video frames into non-uniform blocks based on object distribution and the computational characteristics of DNNs. Furthermore, a parallel edge offloading scheme is implemented to distribute these blocks across multiple edge servers for concurrent processing. Experimental evaluations show that RE-POSE significantly enhances detection accuracy and reduces inference latency, surpassing existing methods.