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Edmond Qi Wu

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2 papers
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2

EAAI Journal 2026 Journal Article

A novel correlation-driven cross-term compression polynomial network for classifying motion sickness levels

  • Ying Yan
  • Haoran Li
  • Jun Cai
  • Guanting Liu
  • Edmond Qi Wu
  • Hao Wang
  • Chengcheng Hua
  • Yaowen Yu

Virtual reality (VR) motion sickness remains a major barrier to widespread adoption. While hardware improvements are common, efficient and accurate algorithmic monitoring solutions are still lacking. Deep learning methods achieve high accuracy but suffer from high complexity and poor interpretability, whereas traditional polynomial models become inefficient due to the combinatorial explosion of cross-terms. To address these limitations, we propose the Correlation-Driven Cross-Term Compression Polynomial Network (CDCTC-PolyNet), a lightweight polynomial model designed for real-time cybersickness recognition. The key innovation is correlation-driven cross-term compression: pairwise feature relationships are quantified using Pearson correlation coefficients, and cross-terms of highly correlated features are approximated by univariate higher-order terms. This strategy significantly reduces model complexity while preserving predictive accuracy. CDCTC-PolyNet is evaluated on ElectroEncephaloGraphy (EEG) data from 23 subjects using 1-s epochs, with cybersickness labeled as high or low based on the median Simulator Sickness Questionnaire (SSQ) score. Under a subject-mixed data split, the model achieves a classification accuracy of 97. 98%, with 10% lower computational complexity and 20% faster training compared to baseline methods. Although this study focuses on methodological validation rather than cross-subject generalization, the results demonstrate the feasibility of CDCTC-PolyNet as an interpretable and ultra-lightweight framework for EEG-based motion sickness monitoring. Beyond VR gaming, the proposed framework can be deployed in low-power Augmented Reality (AR) glasses or vehicle infotainment systems to provide real-time alerts before motion sickness affects driving safety or passenger comfort. The code is available at https: //github. com/YingYan2024/CDCTC-PolyNet.

EAAI Journal 2026 Journal Article

Residual multi-dimensional Taylor network for epileptic electroencephalography detection

  • Ying Yan
  • Guanting Liu
  • Jun Cai
  • Na Liu
  • Shencun Fang
  • Adrian David Cheok
  • Edmond Qi Wu
  • Chengcheng Hua

The accurate and prompt automatic detection of epilepsy is crucial for delivering effective treatment and enhancing the quality of life for patients. While current deep learning methods offer high diagnostic precision, their intricate model structures and computational demands can delay real-time epilepsy diagnosis. This paper introduces a novel Residual Multi-dimensional Taylor Network (ResMTN) classifier to address these challenges. By integrating the strategies of Residual Networks (ResNet) into the Multi-dimensional Taylor Network (MTN) and proposing an innovative weight initialization strategy called Stabilized Polynomial Initialization (SPI), we successfully mitigate the overfitting and gradient vanishing issues caused by the high-order polynomial terms in MTN, further boosting the network's performance and representational capacity. Results from experiments conducted on a publicly available dataset from the University of Bonn and Children's Hospital Boston-Massachusetts Institute of Technology (CHB-MIT) show how effective ResMTN classifier is. When fed with features derived from the original signals through wavelet transform and subsequent feature extraction, the ResMTN achieved a diagnostic accuracy of 99. 82% on Bonn's dataset, accuracy of 98. 51% on CHB-MIT, and exhibited the lowest computational cost. Code is available at https: //github. com/YingYan2024/ResMTN.

v2026.09.13