Next-Generation Neurological Physiotherapy: Deep Learning–Based Movement Profiling and Real-Time Personalized Rehabilitation Algorithms

Abstract Neurological physiotherapy is entering a pivotal phase where conventional protocol-driven care is increasingly misaligned with the complexity and heterogeneity of real-world disability. Patients with stroke, traumatic brain injury, spinal cord injury, Parkinsonian syndromes, and other central nervous system disorders present with highly individualized movement impairments that evolve over time. Yet most rehabilitation pathways remain anchored to coarse clinical scales and therapist observation, which—although essential—cannot fully capture millisecond-level timing, subtle compensations, or distributed whole-body coordination. Deep learning–based movement profiling and closed loop personalized rehabilitation algorithms offer a credible route to next-generation practice. This article proposes a multimodal framework that combines wearable inertial sensors, pressure insoles, and depth cameras with spatiotemporal feature extraction and deep learning encoders to derive a stable, low-dimensional “movement signature” for each patient. These signatures drive real-time controllers that adapt task difficulty, assistance, feedback modality, and dosing during therapy, while explicitly keeping the physiotherapist in the loop as the clinical decision-maker. The paper outlines a pragmatic research protocol, including model architecture, data pipeline, physiotherapy intervention design, outcome measures, sample size estimation, and ethical safeguards. Particular emphasis is placed on interpretability, therapist trust, safety mechanisms, and equitable deployment in low-resource settings. Rather than framing algorithms as a replacement for human expertise, the proposed system is designed to extend a therapist’s sensory bandwidth, standardize high-quality care, and create a continuously learning rehabilitation ecosystem. This concept paper provides a technically grounded yet clinically oriented roadmap that researchers can translate into multicentre trials and implementation studies.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-09
DOI
https://doi.org/10.5281/zenodo.18055549
Primary Topic
Stroke Rehabilitation and Recovery
Type
article
Field-Weighted Citation Impact
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article

Next-Generation Neurological Physiotherapy: Deep Learning–Based Movement Profiling and Real-Time Personalized Rehabilitation Algorithms

P. Muthukrishnan, S. Rajadurai
Zenodo (CERN European Organization for Nuclear Research)
Stroke Rehabilitation and Recovery
article

Next-Generation Neurological Physiotherapy: Deep Learning–Based Movement Profiling and Real-Time Personalized Rehabilitation Algorithms

P. Muthukrishnan, S. Rajadurai
article en

Abstract

Abstract Neurological physiotherapy is entering a pivotal phase where conventional protocol-driven care is increasingly misaligned with the complexity and heterogeneity of real-world disability. Patients with stroke, traumatic brain injury, spinal cord injury, Parkinsonian syndromes, and other central nervous system disorders present with highly individualized movement impairments that evolve over time. Yet most rehabilitation pathways remain anchored to coarse clinical scales and therapist observation, which—although essential—cannot fully capture millisecond-level timing, subtle compensations, or distributed whole-body coordination. Deep learning–based movement profiling and closed loop personalized rehabilitation algorithms offer a credible route to next-generation practice. This article proposes a multimodal framework that combines wearable inertial sensors, pressure insoles, and depth cameras with spatiotemporal feature extraction and deep learning encoders to derive a stable, low-dimensional “movement signature” for each patient. These signatures drive real-time controllers that adapt task difficulty, assistance, feedback modality, and dosing during therapy, while explicitly keeping the physiotherapist in the loop as the clinical decision-maker. The paper outlines a pragmatic research protocol, including model architecture, data pipeline, physiotherapy intervention design, outcome measures, sample size estimation, and ethical safeguards. Particular emphasis is placed on interpretability, therapist trust, safety mechanisms, and equitable deployment in low-resource settings. Rather than framing algorithms as a replacement for human expertise, the proposed system is designed to extend a therapist’s sensory bandwidth, standardize high-quality care, and create a continuously learning rehabilitation ecosystem. This concept paper provides a technically grounded yet clinically oriented roadmap that researchers can translate into multicentre trials and implementation studies.

Zenodo (CERN European Organization for Nuclear Research)
Meenakshi Academy of Higher Education and Research (IN), Meenakshi Medical College Hospital and Research Institute (IN)
Openalex Percentile: Top 33%
Stroke Rehabilitation and Recovery
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