Aug 2026· 2026 IEEE International Conference on Mechatronics and Automation (ICMA)· pp. 2108-2113· 0 citations· 20 references
Abstract
In response to the limitations of traditional posture assessment (subjective, low quantification) and single sensing modalities (vision, pressure, IMU), this paper proposes a multimodal fusion framework integrating plantar pressure and kinematic sensing. Using the MovePort public dataset and a clinical dataset, sliding window augmentation generated 1,216 labeled samples. Five statistical features were extracted from COP and IMU signals. A random forest classifier was adopted with GroupKFold (public dataset) and LOOCV (clinical dataset). Unlike previous work, this study has innovated in the following areas. Firstly, the modal level ablation experiment quantified the fusion gain: Full fusion achieved an accuracy of 85.32% on the MovePort public dataset, outperforming only COP (70.29%) and only IMU (76.83%), with a quantization gain that was+8.49 percentage points higher than the optimal single modality. Secondly, feature importance analysis revealed for the first time the relative contribution of each modality: IMU accounted for 72.6%, COP accounted for 27.4%, providing quantitative basis for sensor selection. Thirdly, strictly adopt topic independent validation (GroupKFold) to avoid overly optimistic generalization estimates commonly seen in random partitioning. On a clinical small sample dataset (N=37, three types of tasks), the framework achieved an accuracy of 56.76%, establishing a baseline for future clinical studies.
Reliable pain assessment remains a major challenge in clinical care, especially for patients who cannot communicate their symptoms effectively. This paper presents a subject-independent, feature-based framework for classifying multimodal biosignals into three states: No Pain, Pain Arm, and Pain Hand using the AI4Pain 2...
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Objective. Human–machine interfaces (HMIs) based on surface electromyography (sEMG) and A-mode ultrasound have achieved high gesture recognition accuracy; however, most studies have been conducted under a single static arm position. In practice, arm position variation degrades performance and limits translation beyond...
Shang Shi, Jian-Jun Meng, Zong-Tian Yin et al.· Journal of Neural Engineerin...· 0 citations
SDALLE, a publicly available multimodal dataset integrating surface electromyography and inertial measurement unit signals acquired using a DELSYS Trigno wireless system, and an exploratory Wasserstein Generative Adversarial Network with Gradient Penalty augmentation strategy for class balancing are presented, providin...
M. Farouk, M. F. El-Khatib, M. Awad et al.· Scientific Reports· 0 citations
To improve the accuracy and adaptability of gait analysis in embedded smart insole systems, this study proposes a multimodal pressure distribution prediction and gait optimization framework based on Vision-and-Language Transformer (ViLT) and cross-modal spatiotemporal modeling. The proposed approach addresses the limit...
Suzzane Shu, F. Shangguan· Advanced Electromagnetics· 0 citations
A dual-stream prototype that combines a nine-axis inertial measurement unit (IMU) with vision-based pose estimation and establishes feasibility within the studied cohort and exercises; broader generalization and feedback effectiveness require larger, independently controlled evaluations.
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Comparing machine learning and deep learning models for classifying postural states in VR under visual perturbations suggests that multimodal sensing, temporal deep learning, and explainable AI can support reliable classification of balance-related instability in VR.
N. Anjum, M. Pavel, Robert Gonzalez et al.· 0 citations
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