Aug 2026· IEEE/ACM International Conference on Connected Health: Applications, Systems and Engineering Technologies· pp. 577-578· 0 citations· 7 references
Abstract
Improper technique in strength training is a common cause of injury, yet most wearable fitness devices provide limited support for monitoring resistance exercises. We present LiftIQ, a real-time strength training monitoring system that integrates wearable inertial measurement unit (IMU) sensors with signal processing algorithms. The system uses Symbolic Aggregate approXimation (SAX) for motion segmentation and Dynamic Time Warping (DTW) for repetition alignment and analysis. LiftIQ extracts biomechanical features such as range of motion and velocity to provide real-time auditory and visual feedback, along with a gamification system to enhance user engagement. Preliminary results demonstrate reliable repetition segmentation and real-time operation under varying movement speeds. These findings suggest that LiftIQ supports the connected health vision of continuous, unobtrusive monitoring and can enable more accessible, feedback-driven strength training guidance across diverse user populations. Future work will expand coverage to additional exercises, conduct larger-scale validation studies, and integrate AI-driven fatigue detection and personalized training adjustment.
Wearable technologies are reshaping gait rehabilitation by shifting assessment and therapy from intermittent, clinic-based observation to continuous, data-driven, and adaptive care. This narrative review synthesizes the biomechanical basis of gait instability, the architecture and classification of wearable rehabilitat...
Li-Jin Liu, Chang-Fa Huang, Zhong-Yin Ji et al.· Bioengineering· 0 citations
This preliminary laboratory validation suggests that the Ergo-PAS can provide reasonably accurate and repeatable posture measurements using smartphone-based inertial sensors and shows promise as a low-cost platform for real-time ergonomic risk monitoring and providing feedback.
W. Kusmasari, Khoirul Muslim, Y. Yassierli et al.· Work· 0 citations
Background: Conventional laboratory based EMG systems constrain neuromuscular assessment to controlled environments, limiting ecological validity in sport and rehabilitation. While AI enabled wearable sensor systems, including surface EMG (sEMG), high density EMG (HD-EMG), inertial measurement units (IMUs), and multimo...
D. Skalski, Michał Spieszny, Lukasz Jaworski et al.· Baltic Journal of Health and...· 0 citations
Highlights What are the main findings? Reduced Reachable Workspace (RWS), quantified using the camera-derived Relative Surface Area (RSA) score, was associated with decreased arm use in daily life (ρ = 0.66), as measured with an accelerometer-based, smartwatch-derived metric in 14 individuals with chronic stroke. RSA w...
Guillem Cornella-Barba, Natanya Gunn, Vicky Chan et al.· Italian National Conference...· 0 citations
Background: Lower limb injuries are a major concern in soccer due to sprinting, deceleration, cutting, change of direction, jumping, landing, and kicking demands. Laboratory based biomechanical assessment provides high accuracy, but it is often less practical for capturing real on field movement demands. Wearable inert...
Abriadi Muhara, Juhanis, Muslim et al.· International Journal of App...· 0 citations
Static force plates (FP) are the gold standard for measuring ground reaction forces (GRF) and computing joint moments through inverse dynamics in gait analysis. However, they are restricted to controlled environments, and the number of steps analyzed is limited by the plates embedded in the floor. To address these limi...
C. B. Sanz Morère, G. Garrido-López, M. Hayase et al.· medRxiv· 0 citations
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