Computerized Posturography With Machine Learning To Individualize Balance Training And Mitigate Fall Risk In Cardiac Rehabilitation

INTRODUCTION: Fall risk (FR) screening in cardiac rehabilitation (CR) with computerized posturography (CP) has the potential to enhance workflow efficiency and improve patient outcomes by using artificial intelligence to individualize recommendations for balance training (BT). PURPOSE: To evaluate the clinical application of the Rehabilitation Artificial Physical Intelligence Database (RAPID) portable foot pressure mat with CP machine learning (ML) software to quantify balance and identify recommendations for therapeutic exercise. METHODS: On entry to early outpatient CR, static balance was assessed in 44 adults (86% male, mean age = 68 + 13 years) with the modified Clinical Test of Sensory Interaction in Balance (mCTSIB). Two trials of four 20-second progressively demanding test conditions were conducted while standing on a foot pressure mat. RAPID software decoded peak foot pressure, weight distribution and Center of Pressure (CoP) postural sway. A higher composite CoP score in cms of sway across the four test conditions indicated a limited ability to remain steady. Prescriptive and predictive ML algorithms identified patterns that categorized CoP scores into a percentile based on age-sex norms. This information was linked to one of ten corrective BT protocols with the potential to mitigate FR. This included a group of five exercise demonstration videos that was generated from a video library. RESULTS: Thirty-eight participants (86%) completed all four test conditions. The lowest mean composite CoP score = 140 + 99 cm. Group assignment to the BT protocols ranged from 1-10 as follows (Groups 1-2 = 18.2%; Groups 3-4 = 4.5%; Groups 5-6 = 4.5%; Groups 7-8 = 27.3%; Groups 9-10 = 45.5%). Those unable to complete all test conditions were assigned Group 1. CONCLUSIONS: Screening with CP identified objective FR metrics and corrective exercise recommendations. This provided feedback to augment the clinician’s decision making in the customization an individualized exercise plan. A rigorous research methodology is needed to evaluate the effect of CP in CR. A.J. & Sigismunda Palumbo Charitable Trust

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Journal
Medicine & Science in Sports & Exercise
Published
2024-09-16
DOI
https://doi.org/10.1249/01.mss.0001053804.93149.87
Primary Topic
Stroke Rehabilitation and Recovery
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article
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article

Computerized Posturography With Machine Learning To Individualize Balance Training And Mitigate Fall Risk In Cardiac Rehabilitation

Robert Scales, Casey Filler, Molly Tomah, Zeyu Song et al.
Medicine & Science in Sports & Exercise
Stroke Rehabilitation and Recovery
article

Computerized Posturography With Machine Learning To Individualize Balance Training And Mitigate Fall Risk In Cardiac Rehabilitation

Robert Scales, Casey Filler, Molly Tomah, Zeyu Song, Kaitlin Moore, Bryan J. Taylor, Daniel Enriquez, Jon Vimmerstedt, Regis Fernandes, Mike Studer, F. T. Paul
article en

Abstract

INTRODUCTION: Fall risk (FR) screening in cardiac rehabilitation (CR) with computerized posturography (CP) has the potential to enhance workflow efficiency and improve patient outcomes by using artificial intelligence to individualize recommendations for balance training (BT). PURPOSE: To evaluate the clinical application of the Rehabilitation Artificial Physical Intelligence Database (RAPID) portable foot pressure mat with CP machine learning (ML) software to quantify balance and identify recommendations for therapeutic exercise. METHODS: On entry to early outpatient CR, static balance was assessed in 44 adults (86% male, mean age = 68 + 13 years) with the modified Clinical Test of Sensory Interaction in Balance (mCTSIB). Two trials of four 20-second progressively demanding test conditions were conducted while standing on a foot pressure mat. RAPID software decoded peak foot pressure, weight distribution and Center of Pressure (CoP) postural sway. A higher composite CoP score in cms of sway across the four test conditions indicated a limited ability to remain steady. Prescriptive and predictive ML algorithms identified patterns that categorized CoP scores into a percentile based on age-sex norms. This information was linked to one of ten corrective BT protocols with the potential to mitigate FR. This included a group of five exercise demonstration videos that was generated from a video library. RESULTS: Thirty-eight participants (86%) completed all four test conditions. The lowest mean composite CoP score = 140 + 99 cm. Group assignment to the BT protocols ranged from 1-10 as follows (Groups 1-2 = 18.2%; Groups 3-4 = 4.5%; Groups 5-6 = 4.5%; Groups 7-8 = 27.3%; Groups 9-10 = 45.5%). Those unable to complete all test conditions were assigned Group 1. CONCLUSIONS: Screening with CP identified objective FR metrics and corrective exercise recommendations. This provided feedback to augment the clinician’s decision making in the customization an individualized exercise plan. A rigorous research methodology is needed to evaluate the effect of CP in CR. A.J. & Sigismunda Palumbo Charitable Trust

Medicine & Science in Sports & ExerciseVol. 56(10S)
Midwestern University (US), Jacksonville College (US), WinnMed (US), Mayo Clinic in Arizona (US), Mayo Clinic in Florida (US), Touro University Nevada (US)
Openalex Percentile: Top 81%
Stroke Rehabilitation and Recovery
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