The Effects of Real-Time Haptic Feedback on Gait and Cognitive Load in Older Adults

Gait speed is a key indicator of mobility and health in older adults, with declines often reflecting neuromotor deficits rather than musculoskeletal or cardiopulmonary limitations. This study presents a wearable smartphone-based haptic feedback system that applies feedback to the thighs to increase peak thigh extension (PTE) and, consequently, improve stride length and walking speed. Thirty community-dwelling older adults ( ${79}.{9}~ {\pm }~{6}.{5}$ years) participated in this study. Three treatment conditions were evaluated: (1) tactile feedback due to incorrect response when PTE was below the target ( ${F}_{\text {IR}}$ ); (2) tactile feedback due to correct response when the target PTE was met ( ${F}_{\textit {CR} }$ ); and (3) verbal instructions ( ${I}_{\boldsymbol {V}}$ ) without feedback. Cognitive demand during treatment was assessed using a probe reaction time task. Walking trials comparing baseline with treatment conditions were conducted. We found significant differences for all gait parameters across walking trials ( $\mathit {p} \lt {0}.{001}$ ), but no significant difference among the three treatment conditions. The haptic feedback system significantly increased stride length by 14% and gait speed by 18%. Gains in speed and stride length were achieved using the haptic system during a single session, comparable to following verbal instructions. Although no statistical difference was found across treatments, thigh feedback employed a different mechanism than verbal instructions for attaining greater speed. Adding haptic feedback increased reaction time, but these increases were small ( ${F}_{\textit {IR} }$ : 27ms, ${F}_{\textit {CR} }$ : 74ms), indicating minimal cognitive load. The observed gait improvements suggest haptic feedback is a viable option for gait training for older adults.

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Publication Details

Journal
IEEE Transactions on Neural Systems and Rehabilitation Engineering
Published
2025-01-01
DOI
https://doi.org/10.1109/tnsre.2025.3578865
Citations
3
Primary Topic
Technology and Human Factors in Education and Health
Type
article
Field-Weighted Citation Impact
5.64

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article

The Effects of Real-Time Haptic Feedback on Gait and Cognitive Load in Older Adults

Ehsan Sharafian Moghaddam, Ben Sidaway, Marie J. Hayes, Charles D. Ellis et al.
3 citations
IEEE Transactions on Neural Systems and Rehabilitation Engineering
Technology and Human Factors in Education and Health
5.64
article

The Effects of Real-Time Haptic Feedback on Gait and Cognitive Load in Older Adults

Ehsan Sharafian Moghaddam, Ben Sidaway, Marie J. Hayes, Charles D. Ellis, Babak Hejrati
article en
3 citations

Abstract

Gait speed is a key indicator of mobility and health in older adults, with declines often reflecting neuromotor deficits rather than musculoskeletal or cardiopulmonary limitations. This study presents a wearable smartphone-based haptic feedback system that applies feedback to the thighs to increase peak thigh extension (PTE) and, consequently, improve stride length and walking speed. Thirty community-dwelling older adults ( ${79}.{9}~ {\pm }~{6}.{5}$ years) participated in this study. Three treatment conditions were evaluated: (1) tactile feedback due to incorrect response when PTE was below the target ( ${F}_{\text {IR}}$ ); (2) tactile feedback due to correct response when the target PTE was met ( ${F}_{\textit {CR} }$ ); and (3) verbal instructions ( ${I}_{\boldsymbol {V}}$ ) without feedback. Cognitive demand during treatment was assessed using a probe reaction time task. Walking trials comparing baseline with treatment conditions were conducted. We found significant differences for all gait parameters across walking trials ( $\mathit {p} \lt {0}.{001}$ ), but no significant difference among the three treatment conditions. The haptic feedback system significantly increased stride length by 14% and gait speed by 18%. Gains in speed and stride length were achieved using the haptic system during a single session, comparable to following verbal instructions. Although no statistical difference was found across treatments, thigh feedback employed a different mechanism than verbal instructions for attaining greater speed. Adding haptic feedback increased reaction time, but these increases were small ( ${F}_{\textit {IR} }$ : 27ms, ${F}_{\textit {CR} }$ : 74ms), indicating minimal cognitive load. The observed gait improvements suggest haptic feedback is a viable option for gait training for older adults.

IEEE Transactions on Neural Systems and Rehabilitation EngineeringVol. 33
Husson University (US), University of Maine (US)
National Science Foundation, National Institutes of Health, National Institute on Aging
Openalex Percentile: Top 4%
Technology and Human Factors in Education and Health
5.64
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