Key result
DLM-Net achieves up to ~98% label-wise accuracy across three multi-label ECG datasets.
Why the study?
Automated deep learning ECG classification is often limited by ECG signal variability, the presence of multiple cardiac abnormalities, and inadequate integration of clinical metadata.
The proposed DLM-Net deep learning framework demonstrates high accuracy for multi-label ECG classification by integrating spatial, lead-specific, and clinical tabular data.
May enhance multi-label ECG classification in complex cases; leaves open prospective clinical validation before adoption.
Cardiovascular diseases remain a major global health burden, making accurate elec-trocardiogram (ECG) analysis essential for timely diagnosis. While deep learning-based methods have made significant progress in automating ECG classification, they are often limited by the variability of ECG signals, the frequent presence of multiple cardiac abnor-malities, and the inadequate integration of diverse clinical data. This study proposes DLM-Net: a robust deep learning framework for multi-label ECG classification, designed to address these challenges. DLM-Net in-corporates several key innovations. First, the Lead-Specific Deformable Path applies de-formable convolutions independently to each lead. This enables adaptive modelling of non-rigid and complex waveform variations. It is also enhanced by a High-Frequency Module, which captures fine-grained tem-poral details. Secondly, a spatial path based on a ResNet-like backbone and feature pyr-amid network (FPN) fuses multi-scale repre-sentations in order to effectively capture both global and local ECG patterns. In parallel, the Lead Path uses a Lead Attention Trans-former to explicitly model inter-lead de-pendencies. Finally, ECG features from the spatial and lead paths are integrated with clinical tabular data through a multimodal fusion module, in which compact pa-tient-level tabular embeddings provide com-plementary contextual information for ECG representation. Extensive experiments on three public multi-label ECG datasets PTB-XL, CPSC2018 and Chapman demonstrate that DLM-Net achieves compet-itive and stable performance across datasets, with label-wise accuracies of 89.11%, 96.05% and 97.82%, respectively. Overall, DLM-Net provides an effective and flexible framework for multi-label ECG classification, offering improved accuracy and robustness across diverse datasets and demonstrating the effec-tiveness of the proposed architecture in han-dling complex multi-label diagnostic tasks in retrospective settings.
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Zhou et al. (2026) studied Cardiovascular diseases. DLM-Net was evaluated on Label-wise accuracy. DLM-Net achieved label-wise accuracies of 89.11%, 96.05%, and 97.82% on the PTB-XL, CPSC2018, and Chapman multi-label ECG datasets, respectively.
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