HengNet

An Ultra-lightweight Model with Two-level Reuse Algorithm for Seizure Detection and Prediction

Conference Paper (2025)
Author(s)

Heng Zhang (Nanjing University)

Linxiang Wang (Nanjing University)

Wenjie Fan (Nanjing University)

Zhenglin Gu (Nanjing University)

Youbin Luo (Nanjing University)

Xingjie Zou (Nanjing University)

Chang Gao (TU Delft - Electronics)

Qinyu Chen (Universiteit Leiden)

Yuxiang Fu (Nanjing University)

Li Li (Nanjing University)

DOI related publication
https://doi.org/10.1109/ISCAS56072.2025.11044121 Final published version
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Publication Year
2025
Language
English
Bibliographical Note
Green Open Access added to TU Delft Institutional Repository as part of the Taverne amendment. More information about this copyright law amendment can be found at https://www.openaccess.nl. Otherwise as indicated in the copyright section: the publisher is the copyright holder of this work and the author uses the Dutch legislation to make this work public.
Publisher
IEEE
ISBN (print)
979-8-3503-5684-7
ISBN (electronic)
979-8-3503-5683-0
Event
Downloads counter
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Abstract

Traditional models based on electroencephalographic (EEG) signals for seizure monitoring encounter difficulties in simultaneously optimizing accuracy, response latency, and computational load. These challenges hinder their deployment in edge computing environments, where real-time local inference is critical. To address these issues, we introduce a novel network architecture, designated as HengNet. This architecture integrates a Two-level Reuse Algorithm (TRA), which strategically reutilizes outputs from intermediate layers, considerably reducing the average computational load per inference - vital for scenarios requiring frequent inferences. When tested on the CHB-MIT dataset, this patient-specific model attains classification accuracies of 95.67% and 99.60% for seizure prediction and detection, respectively. Notably, it maintains an average computational load of merely 0.05 million multiply-accumulate operations (MACs) per inference and has a compact model size of 6.87 K parameters. These results represent a significant advancement compared with existing methods. Operating at a rate of 32 inferences per second, the computational load of the model for seizure prediction has been reduced by more than 19.4 times, and for seizure detection, by more than 6.4 times.

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