Adaptive and multi-scale feature fusion for Chinese news headline classification
Clinical Snapshot
PICO Framework
| P — Population | Chinese news headlines from THUCNews and Toutiao datasets |
| I — Intervention | Two deep learning models: ERNIE-AAFF-SECNN and ERNIE-MSSE-DSCNN |
| C — Comparator | TinyBERT and other state-of-the-art models |
| O — Outcomes | Classification accuracy and model performance metrics |
Bottom Line
This computational study presents novel deep learning architectures for Chinese news headline classification, achieving modest accuracy improvements over existing models. While technically interesting for natural language processing applications, this research has no direct clinical relevance or applicability to Australian healthcare practice. The study lacks statistical rigor expected in clinical research, with no significance testing or confidence intervals reported. Healthcare professionals should note this represents computational methodology research rather than clinical evidence, and the findings cannot inform medical decision-making or patient care protocols.
Key Findings
P Value: Not reported
Effect Size: 1.28% and 0.55% accuracy improvement for ERNIE-AAFF-SECNN; 2.62% and 3.76% for ERNIE-MSSE-DSCNN
Primary Outcome: Classification accuracy improvement over baseline models
Nnt Or Sensitivity: Performance gains of 1-4% over TinyBERT baseline
Confidence Interval: Not reported
Clinical Application
Limited to Chinese language processing applications No direct relevance to Australian healthcare practice, PBS, TGA, or RACGP guidelines Not applicable to clinical practice - computational linguistics study
Abstract
The rapid growth of online news has led to an explosion of short Chinese headlines, which often suffer from sparse features, limited context, and high ambiguity-posing significant challenges for accurate classification. To address these issues, this paper proposes two tailored deep learning models: ERNIE-AAFF-SECNN for large-scale datasets, which enhances semantic representation via adaptive fusion of multi-layer ERNIE features and improves local feature extraction with SE-empowered CNN; and ERNIE-MSSE-DSCNN for small-scale datasets, which integrates multi-scale SE attention, depthwise separable convolutions, and adversarial training to boost robustness under data scarcity. A large number of experiments have shown that both of these models have achieved the most advanced performance. It is worth noting that the accuracy of ERNIE-AAFF-SECNN on the THUCNews and Toutiao datasets is 1.28% and 0.55% higher, respectively, than that of the lightweight SOTA model TinyBERT. The accuracy of ERNIE-MSSE-DSCNN on a 10% training dataset is 2.62% and 3.76% higher than that of the lightweight SOTA model TinyBERT, respectively. It demonstrates outstanding effectiveness under both standard and low-resource Settings. These results demonstrate that targeted architectural enhancements-such as adaptive feature fusion and multi-scale attention with adversarial training-can significantly improve the accuracy and robustness of short-text classification in practical Chinese news applications.
References
- 1.Yan, Y. (2026). Adaptive and multi-scale feature fusion for Chinese news headline classification. PLoS One. https://doi.org/10.1371/journal.pone.0345779
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