Toward Personalized Rotator Cuff Physical Therapy Dosage Using a Machine Learning-Based Pilot Study with EMG

). Because sEMG reliably measures superficial muscle activity, a linear programming model was used to divide a 60 min therapy session in a way that increases activation of superficial muscles (such as deltoid and trapezius) while reducing strain on deep muscles (such as supraspinatus and infraspinatus). Three optimization scenarios were tested by reflecting a different clinical goal: prioritizing superficial muscles, minimizing deep muscle strain, or balancing both. Optimized time allocations assigned more time to external rotation at 90° abduction and scaption. This research demonstrates the potential for data-driven methods to transform rotator cuff rehabilitation through personalized and evidence-based treatment plans. The results enhance clinical practice by enabling adaptive rehabilitation planning and show that machine learning can support decision-making in complex muscle activation analysis with strong performance and low latency.

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Publication Details

Journal
Bioengineering
Published
2026-04-21
DOI
https://doi.org/10.3390/bioengineering13040483
Primary Topic
Shoulder Injury and Treatment
Type
article
Field-Weighted Citation Impact
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article

Toward Personalized Rotator Cuff Physical Therapy Dosage Using a Machine Learning-Based Pilot Study with EMG

Japp Adhikari, Mehrnoosh Damircheli, AmirHossein MajidiRad, Iram Azam
Bioengineering
Shoulder Injury and Treatment
article

Toward Personalized Rotator Cuff Physical Therapy Dosage Using a Machine Learning-Based Pilot Study with EMG

Japp Adhikari, Mehrnoosh Damircheli, AmirHossein MajidiRad, Iram Azam
article en

Abstract

). Because sEMG reliably measures superficial muscle activity, a linear programming model was used to divide a 60 min therapy session in a way that increases activation of superficial muscles (such as deltoid and trapezius) while reducing strain on deep muscles (such as supraspinatus and infraspinatus). Three optimization scenarios were tested by reflecting a different clinical goal: prioritizing superficial muscles, minimizing deep muscle strain, or balancing both. Optimized time allocations assigned more time to external rotation at 90° abduction and scaption. This research demonstrates the potential for data-driven methods to transform rotator cuff rehabilitation through personalized and evidence-based treatment plans. The results enhance clinical practice by enabling adaptive rehabilitation planning and show that machine learning can support decision-making in complex muscle activation analysis with strong performance and low latency.

BioengineeringVol. 13(4)
Purdue University Northwest (US), WinnMed (US), York College of Pennsylvania (US), Mayo Clinic in Florida (US)
Peace, Justice and strong institutions
Openalex Percentile: Top 20%
Shoulder Injury and Treatment
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