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February 24, 2026Biomedical Signal Processing and Control0 citationsOpen Access

FPMBGCN : Feature pyramid-based multi-branch graph convolutional networks for epileptic seizure detection

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ZZZhongfei ZhangJiangxi University of Science and TechnologyJLJialong LaiMacau University of Science and TechnologyXZXu ZhangAnhui University

Key Result

FPMBGCN achieved 92.21% accuracy and 91.64% F1 score for cross-patient epileptic seizure detection on CHB-MIT EEG dataset.

Key Points

  • The aim is to enhance automatic detection of epileptic seizures by addressing inter-channel dependencies in EEG signals.
  • Proposes FPMBGCN for detecting seizures via multi-channel EEG signals.
  • Constructs three complementary graph structures: PCC, PLV, and SD.
  • Implements a channel weight block to emphasize critical EEG channels.
  • Uses a graph feature pyramid for multi-scale information extraction and noise suppression.
  • Achieves 92.21% accuracy and 94.50% precision on CHB-MIT dataset.
  • Secures 77.94% accuracy and 76.25% precision on the Siena dataset.
  • Demonstrates state-of-the-art F1 scores for cross-patient detection.

Structured PICO

P
Population
Multi-channel EEG signals from patients with epilepsy (evaluated on the CHB-MIT dataset and the Siena scalp EEG dataset)
I
Intervention
Feature pyramid-based multi-branch graph convolutional network (FPMBGCN)
O
Outcome
Epileptic seizure detection performance (accuracy, precision, recall, specificity, F1 score)

The proposed FPMBGCN model effectively captures inter-channel topological relationships and achieves state-of-the-art classification performance for cross-patient EEG seizure detection.

Abstract

Epilepsy is a prevalent neurological disorder, and the automatic detection of seizure periods plays a vital role in clinical diagnosis and treatment. However, significant variability in seizure patterns across patients poses substantial challenges for cross-patient detection, including pattern heterogeneity and noise interference. Traditional convolutional neural networks struggle to model the topological dependencies between EEG channels, while existing graph neural network (GNN) approaches, which typically rely on a single graph input, exhibit limited capacity in capturing inter-channel topological relationships. To address these limitations, this paper proposes the feature pyramid-based multi-branch graph convolutional network (FPMBGCN) for epileptic seizure detection using multi-channel EEG signals. The method constructs three complementary graph-structures: pearson correlation coefficient (PCC), phase-locking value (PLV), and spatial distance (SD) graphs—to extract shared topological features across patients. It further incorporates a channel weight block to adaptively emphasize critical channels, a graph feature pyramid to capture multi-scale information while suppressing noise, and the graph squeeze-and-excitation (GraphSE) module alongside a self-attention mechanism to enhance the representation of spatial and temporal dynamics. The performance of the proposed method is evaluated on both the CHB-MIT dataset and the Siena scalp EEG dataset with leave-one-out cross-validation. For the CHB-MIT dataset, the proposed FPMBGCN achieves an average accuracy of 92.21%,a precision of 94.50%, a recall of 90.03%, an F1 score of 78.59%, and an F1 score of 91.64% in cross-patient detection. On the Siena dataset, it achieves an accuracy of 77.94%, a precision of 76.25%, a recall of 81.37%, a specificity of 74.41%, an F1 score of 78.59%. • FPMBGCN combines multi-branch GCN and feature pyramid for cross-patient EEG seizures. • Constructs three graph structures to represent the topology of EEG signals. • Achieves state-of-the-art classification performance on the CHB-MIT dataset.

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Cite This Study

Zhang et al. (2026) studied this question. FPMBGCN achieved 92.21% accuracy and 91.64% F1 score for cross-patient epileptic seizure detection on CHB-MIT EEG dataset.

synapsesocial.com/papers/699d3f9ede8e28729cf6445dhttps://doi.org/10.1016/j.bspc.2026.109904
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