Estimation of Spatial-Temporal Gait Parameters based on the Fusion of Inertial and Film-Pressure Signals
Cheng Wang, Xiangdong Wang, Zhou Long, Tian Tian, Mingming Gao,, Xiaoping Yun, Yueliang Qian, and Jintao Li

TL;DR
This paper introduces a low-cost, wearable in-shoe system combining inertial and film-pressure sensors to accurately estimate spatial-temporal gait parameters, validated through experiments with stroke patients.
Contribution
It presents a novel multimodal sensor fusion system and algorithm for gait analysis, improving accuracy over existing inertial-only methods.
Findings
High correlation with laboratory gait analysis tools
Effective estimation of multiple gait parameters
Validated with stroke patient data
Abstract
Gait analysis (GA) has been widely used in physical activity monitoring and clinical contexts, and the estimation of the spatial-temporal gait parameters is of primary importance for GA. With the quick development of smart tiny sensors, GA methods based on wearable devices have become more popular recently. However, most existing wearable GA methods focus on data analysis from inertial sensors. In this paper, we firstly present a two-foot-worn in-shoe system (Gaitboter) based on low-cost, wearable and multimodal sensors' fusion for GA, comprising an inertial sensor and eight film-pressure sensors with each foot for gait raw data collection while walking. Secondly, a GA algorithm for estimating the spatial-temporal parameters of gait is proposed. The algorithm fully uses the fusion of two kinds of sensors' signals: inertial sensor and film-pressure sensor, in order to estimate the…
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Taxonomy
TopicsGait Recognition and Analysis · Diabetic Foot Ulcer Assessment and Management · Balance, Gait, and Falls Prevention
