E3: Early Exiting with Explainable AI for Real-Time and Accurate DNN Inference in Edge-Cloud Systems

Edge intelligence applications frequently generate deep learning inference tasks with varying Service Level Objectives (SLO, such as accuracy and real-time requirements). For such tasks, recent progressive inference modes support early exit from different branches to satisfy inference requirements. However, existing edge-cloud progressive neural architectures cannot simultaneously achieve high accuracy and real-time performance for different data features. Therefore, we utilize explainable AI technique to construct and train a novel progressive neural architecture E3. E3 can progressively extract the most important features for inference, ensuring higher accuracy at early-exit points. While the less important features in the later stage are highly compressible, thereby reducing edge-cloud transmission overhead. Furthermore, E3 cooperates with online execution control to launch tasks and decide the exit point for each task, ensuring resource utilization and real-time performance, and adapting to bandwidths and deadlines. Experimental results on various edge-cloud platforms, datasets, and reference models demonstrate that E3 is more lightweight, efficient, energy-saving, and incurs almost no additional runtime overhead compared to traditional architectures. Under stringent deadlines, the average accuracy of tasks increases by > 50%, and the deadline satisfaction rate approaches 100%.

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Publication Details

Published
2025-05-04
DOI
https://doi.org/10.1145/3715014.3722076
Citations
1
Primary Topic
IoT and Edge/Fog Computing
Type
article
Field-Weighted Citation Impact
1.49

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article

E3: Early Exiting with Explainable AI for Real-Time and Accurate DNN Inference in Edge-Cloud Systems

Ziyang Zhang, Changyao Lin, Jie Liu, Zhenming Chen
1 citations
IoT and Edge/Fog Computing
1.49
article

E3: Early Exiting with Explainable AI for Real-Time and Accurate DNN Inference in Edge-Cloud Systems

Ziyang Zhang, Changyao Lin, Jie Liu, Zhenming Chen
article en
1 citations

Abstract

Edge intelligence applications frequently generate deep learning inference tasks with varying Service Level Objectives (SLO, such as accuracy and real-time requirements). For such tasks, recent progressive inference modes support early exit from different branches to satisfy inference requirements. However, existing edge-cloud progressive neural architectures cannot simultaneously achieve high accuracy and real-time performance for different data features. Therefore, we utilize explainable AI technique to construct and train a novel progressive neural architecture E3. E3 can progressively extract the most important features for inference, ensuring higher accuracy at early-exit points. While the less important features in the later stage are highly compressible, thereby reducing edge-cloud transmission overhead. Furthermore, E3 cooperates with online execution control to launch tasks and decide the exit point for each task, ensuring resource utilization and real-time performance, and adapting to bandwidths and deadlines. Experimental results on various edge-cloud platforms, datasets, and reference models demonstrate that E3 is more lightweight, efficient, energy-saving, and incurs almost no additional runtime overhead compared to traditional architectures. Under stringent deadlines, the average accuracy of tasks increases by > 50%, and the deadline satisfaction rate approaches 100%.

Harbin Institute of Technology (CN), Heilongjiang Institute of Technology (CN), China Construction Bank (CN), Politecnico di Milano (IT)
National Natural Science Foundation of China
Climate action
Openalex Percentile: Top 18%
IoT and Edge/Fog Computing
1.49
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