Feature selection to classify lameness using a smartphone-based inertial measurement unit

Gait can be severely affected by pain, muscle weakness, and aging resulting in lameness. Despite the high incidence of lameness, there are no studies on the features that are useful for classifying lameness patterns. Therefore, we aimed to identify features of high importance for classifying populat...

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Veröffentlicht in:PloS one 2021-09, Vol.16 (9), p.e0258067-e0258067
Hauptverfasser: Arita, Satoshi, Nishiyama, Daisuke, Taniguchi, Takaya, Fukui, Daisuke, Yamanaka, Manabu, Yamada, Hiroshi
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container_title PloS one
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creator Arita, Satoshi
Nishiyama, Daisuke
Taniguchi, Takaya
Fukui, Daisuke
Yamanaka, Manabu
Yamada, Hiroshi
description Gait can be severely affected by pain, muscle weakness, and aging resulting in lameness. Despite the high incidence of lameness, there are no studies on the features that are useful for classifying lameness patterns. Therefore, we aimed to identify features of high importance for classifying population differences in lameness patterns using an inertial measurement unit mounted above the sacral region. Features computed exhaustively for multidimensional time series consisting of three-axis angular velocities and three-axis acceleration were carefully selected using the Benjamini-Yekutieli procedure, and multiclass classification was performed using LightGBM (Microsoft Corp., Redmond, WA, USA). We calculated the relative importance of the features that contributed to the classification task in machine learning. The most important feature was found to be the absolute value of the Fourier coefficients of the second frequency calculated by the one-dimensional discrete Fourier transform for real input. This was determined by the fast Fourier transformation algorithm using data of a single gait cycle of the yaw angular velocity of the pelvic region. Using an inertial measurement unit worn over the sacral region, we determined a set of features of high importance for classifying differences in lameness patterns based on different factors. This completely new set of indicators can be used to advance the understanding of lameness.
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Despite the high incidence of lameness, there are no studies on the features that are useful for classifying lameness patterns. Therefore, we aimed to identify features of high importance for classifying population differences in lameness patterns using an inertial measurement unit mounted above the sacral region. Features computed exhaustively for multidimensional time series consisting of three-axis angular velocities and three-axis acceleration were carefully selected using the Benjamini-Yekutieli procedure, and multiclass classification was performed using LightGBM (Microsoft Corp., Redmond, WA, USA). We calculated the relative importance of the features that contributed to the classification task in machine learning. The most important feature was found to be the absolute value of the Fourier coefficients of the second frequency calculated by the one-dimensional discrete Fourier transform for real input. 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subjects Acceleration
Accuracy
Aging
Algorithms
Angular velocity
Ankle
Biology and Life Sciences
Bone surgery
Classification
Data collection
Engineering and Technology
Fast Fourier transformations
Fourier transforms
Gait
Identification and classification
Inertial platforms
Learning algorithms
Machine learning
Mathematical analysis
Measurement
Medical research
Multidimensional methods
Muscles
Orthopedic apparatus
Pain
Physical Sciences
Physiological aspects
Research and Analysis Methods
Sacrum
Sensors
Smart phones
Smartphones
Sound
Standard deviation
Three axis
Velocity
Walking
Yaw
title Feature selection to classify lameness using a smartphone-based inertial measurement unit
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