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Lin Shu

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3 papers
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3

AAAI Conference 2026 Conference Paper

TouchFormer: A Robust Transformer-based Framework for Multimodal Material Perception

  • Kailin Lyu
  • Long Xiao
  • Jianing Zeng
  • Junhao Dong
  • Xuexin Liu
  • Zhuojun Zou
  • Haoyue Yang
  • Lin Shu

Traditional vision-based material perception methods often experience substantial performance degradation under visually impaired conditions, thereby motivating the shift toward non-visual multimodal material perception. Despite this, existing approaches frequently perform naive fusion of multimodal inputs, overlooking key challenges such as modality-specific noise, missing modalities common in real-world scenarios, and the dynamically varying importance of each modality depending on the task. These limitations lead to suboptimal performance across several benchmark tasks. In this paper, we propose a robust multimodal fusion framework, TouchFormer. Specifically, we employ a Modality-Adaptive Gating (MAG) mechanism and intra- and inter-modality attention mechanisms to adaptively integrate cross-modal features, enhancing model robustness. Additionally, we introduce a Cross-Instance Embedding Regularization(CER) strategy, which significantly improves classification accuracy in fine-grained subcategory material recognition tasks. Experimental results demonstrate that, compared to existing non-visual methods, the proposed TouchFormer framework achieves classification accuracy improvements of 2.48% and 6.83% on SSMC and USMC tasks, respectively. Furthermore, real-world robotic experiments validate TouchFormer's effectiveness in enabling robots to better perceive and interpret their environment, paving the way for its deployment in safety-critical applications such as emergency response and industrial automation.

JBHI Journal 2026 Journal Article

Ultra-High Quality ECG Compression for IoMT Application Using Temporal Convolutional Auto-Encoder with Improved RVQ

  • Yeyi Guan
  • Jingyuan Qiao
  • Kailin Zhuang
  • Xinjie Zhang
  • Ruowen Qu
  • Fenghan Zhou
  • Jianxiu Jin
  • Lin Shu

Prolonged Electrocardiogram (ECG) monitoring through the Internet of Medical Things (IoMT) is vital for cardiac diagnosis yet generates prohibitive data volumes, posing significant challenges to storage and transmission. However, conventional ECG compression paradigms have plateaued, failing to push compression ratios higher under stringent fidelity constraints. To address these limitations, we propose an end-to-end architecture that synergizes a multi-granularity temporal-convolutional auto-encoder with Residual Vector Quantization (RVQ). The design introduces three complementary components: (1) RVQ integrated in the encoder–decoder pipeline to boost compression ratios; (2) a codebook-projection layer that increases codebook utilization and reconstruction fidelity; (3) periodicity-aware modeling that captures intrinsic ECG dynamics and further suppresses distortion. Extensive experiments on the MIT BIH Arrhythmia Database show that the proposed method attains a compression ratio of 88× and Quality Score (QS) of 42. 7, while keeping the Percentage Root Mean Difference (PRD) at 2. 36% and the Percentage Root mean Difference Normalized (PRDN) at 17. 56%, clearly surpassing existing techniques. Generalization is further confirmed by zero shot evaluation on the PhysioNet-2017 dataset. Overall, this paper presents an effective end-to-end compression frame work, and experimental results corroborate its efficacy. The code andmodelareopen-sourced at the repository https://github.com/Guan-Y/ECG-Codec.

AAAI Conference 2025 Conference Paper

MSSDA: Multi-Sub-Source Domain Adaptation for Diabetic Foot Neuropathy Recognition

  • Yan Zhong
  • Zhixin Yan
  • Yi Xie
  • Shibin Wu
  • Huaidong Zhang
  • Lin Shu
  • Peiru Zhou

Diabetic foot neuropathy (DFN) is a critical factor leading to diabetic foot ulcers, which is one of the most common and severe complications of diabetes mellitus (DM) and is associated with high risks of amputation and mortality. Despite its significance, existing datasets do not directly derive from plantar data and lack continuous, long-term foot-specific information. To advance DFN research, we have collected a novel dataset comprising continuous plantar pressure data to recognize diabetic foot neuropathy. This dataset includes data from 94 DM patients with DFN and 41 DM patients without DFN. Moreover, traditional methods divide datasets by individuals, potentially leading to significant domain discrepancies in some feature spaces due to the absence of mid-domain data. In this paper, we propose an effective domain adaptation method to address this proplem. We split the dataset based on convolutional feature statistics and select appropriate sub-source domains to enhance efficiency and avoid negative transfer. We then align the distributions of each source and target domain pair in specific feature spaces to minimize the domain gap. Comprehensive results validate the effectiveness of our method on both the newly proposed dataset for DFN recognition and an existing dataset.

v2026.09.13