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Author

Mingchao Ding

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Conference Aug 2026

A Lightweight Upper Limb Intention Recognition Method Based on sEMG-IMU Fusion and PCA

To address the demand for lightweight intention recognition algorithms in home-based portable upper limb rehabilitation robots, this paper presents a lightweight upper limb motion intention recognition scheme based on bimodal fusion of surface electromyography (sEMG) and inertial measurement unit (IMU) signals. Time-domain features are extracted from sEMG and statistical features from IMU, followed by feature-level concatenation. Principal component analysis (PCA) is then applied for dimensionality reduction, and a Support Vector Machine (SVM) is employed to classify five wrist movements. Experiments on the publicly available Ninapro DB5 dataset validate that bimodal fusion enhances recognition accuracy, while PCA effectively compresses the feature space with minimal performance degradation. Key design choices, hyperparameter configurations, and performance boundaries are reported to facilitate practical deployment on resource-constrained portable rehabilitation devices.

Qian Yang, Shuxiang Guo, Hengrui Li et al. · 0 citations
Conference Aug 2026

A Composite Variable Impedance Control Architecture with Adaptive Feedforward Assistance for Rehabilitation Exoskeletons

Home-based rehabilitation exoskeletons often suffer from control instability due to low-cost force sensors. This paper presents a robust, sensorless Composite Variable Impedance Control architecture that separates trajectory tracking (virtual stiffness K) from active assistance (adaptive feedforward torque τassist). By eliminating high-frequency force feedback, the system ensures intrinsic stability. Experiments on the CURE platform demonstrate independent modulation of compliance (RMSE 2.64° to 15.90°) and effective assistance during simulated weakness, reducing tracking RMSE from 13.77° to 3.12°. Results show τassist contributes 59.6% of total torque, enabling "High-Assistance, High-Compliance" interaction without reactive stiffening. This provides a stable execution layer for advanced, bio-signal-driven "Assist-as-Needed" (AAN) therapies.

Jun Leng, Pengcheng Li, Hanze Wang et al. · 0 citations

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