Differences in gait dynamic stability of healthy subjects due to age, body mass, height, BMI, and walking speed

Gait deformities are usually assessed by comparing patients' data with healthy subjects. However, the variability among healthy subjects due to age, body mass, height, BMI, and walking speed could influence the baseline data and hence rehabilitation measurements. Recent studies reported gait variability among healthy subjects considering age as a variant. The independent effect of other variants such as body mass, height, BMI, and walking speed on variability in the baseline data has remained unknown, hence investigated in this study. The centre of pressure signals collected from 205 male subjects was categorised for each of the mentioned five variants. Gait variability was evaluated in terms of walking stability. The centre of pressure signals was analysed by applying Nyquist and Bode methods to compute walking stability during the gait loading and unloading phases. A statistical comparison (one-way ANOVA, p ​< ​0.05) revealed significant variability in the baseline data for variables (age, height, walking speed) during the loading phase and in the anterior-posterior direction. In the medial-lateral direction, these differences were observed as significant during both loading (age, body mass, speed) and unloading phases (age, body mass, height). Overall, the subgroups in respective variants i.e. age: 27 ​± ​0.8yr, body mass: 73 ​± ​0.4 ​kg, height: 177 ​± ​0.5 ​cm, and walking speed: 1.42 ​± ​0.01 ​m/s exhibited relatively higher stability. Further, the Pearson correlation illustrated a signification stability relationship between body mass and other variants. This study provides evidence that the diversity in the healthy subjects’ composition can cause uncertainty in diagnostic and rehabilitation measurements, which is important to consider in gait evaluations. • Variability among control subjects could influence gait assessments. • Gait variability is evaluated in terms of walking stability. • Age, body mass, height, and walking speed are factorised as key variants. • Age, height, and speed significantly altered anterior-posterior stability. • Age, mass, height, and speed significantly altered medial-lateral stability.

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Publication Details

Journal
Medicine in Novel Technology and Devices
Published
2025-02-22
DOI
https://doi.org/10.1016/j.medntd.2025.100355
Citations
2
Primary Topic
Balance, Gait, and Falls Prevention
Type
article
Field-Weighted Citation Impact
9.52
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article

Differences in gait dynamic stability of healthy subjects due to age, body mass, height, BMI, and walking speed

Anam Raza, Salma Sultana, Tayyaba Sultana, Imran Mahmood
2 citations
Medicine in Novel Technology and Devices
Balance, Gait, and Falls Prevention
9.52
article

Differences in gait dynamic stability of healthy subjects due to age, body mass, height, BMI, and walking speed

Anam Raza, Salma Sultana, Tayyaba Sultana, Imran Mahmood
article en
2 citations

Abstract

Gait deformities are usually assessed by comparing patients' data with healthy subjects. However, the variability among healthy subjects due to age, body mass, height, BMI, and walking speed could influence the baseline data and hence rehabilitation measurements. Recent studies reported gait variability among healthy subjects considering age as a variant. The independent effect of other variants such as body mass, height, BMI, and walking speed on variability in the baseline data has remained unknown, hence investigated in this study. The centre of pressure signals collected from 205 male subjects was categorised for each of the mentioned five variants. Gait variability was evaluated in terms of walking stability. The centre of pressure signals was analysed by applying Nyquist and Bode methods to compute walking stability during the gait loading and unloading phases. A statistical comparison (one-way ANOVA, p ​< ​0.05) revealed significant variability in the baseline data for variables (age, height, walking speed) during the loading phase and in the anterior-posterior direction. In the medial-lateral direction, these differences were observed as significant during both loading (age, body mass, speed) and unloading phases (age, body mass, height). Overall, the subgroups in respective variants i.e. age: 27 ​± ​0.8yr, body mass: 73 ​± ​0.4 ​kg, height: 177 ​± ​0.5 ​cm, and walking speed: 1.42 ​± ​0.01 ​m/s exhibited relatively higher stability. Further, the Pearson correlation illustrated a signification stability relationship between body mass and other variants. This study provides evidence that the diversity in the healthy subjects’ composition can cause uncertainty in diagnostic and rehabilitation measurements, which is important to consider in gait evaluations. • Variability among control subjects could influence gait assessments. • Gait variability is evaluated in terms of walking stability. • Age, body mass, height, and walking speed are factorised as key variants. • Age, height, and speed significantly altered anterior-posterior stability. • Age, mass, height, and speed significantly altered medial-lateral stability.

Medicine in Novel Technology and DevicesVol. 26
University of Engineering and Technology Lahore (PK), Government College University, Faisalabad (PK), University of Faisalabad (PK)
Openalex Percentile: Top 4%
Balance, Gait, and Falls Prevention
9.52
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