Towards Enhanced Biofeedback Mechanisms for Upper Limb Rehabilitation in Stroke
C. Dormer, Tomás Ward, Séamus McLoone
Abstract
Open-access reader
C. Dormer, Tomás Ward, Séamus McLoone
Abstract
Open-access reader
This paper highlights a progressive \nrehabilitation strategy which details the development \nof a suite of biomedical feedback sensors to promote \nenhanced rehabilitation after stroke. The strategy \ninvolves promoting total upper limb recovery by \nfocusing on aspects of each stage of post-stroke \nrehabilitation. For a patient with a complete absence \nof movement in the affected upper limb, brain \nsignals will be acquired using \near-Infrared \nSpectroscopy (IRS) combined with motor imagery \nto move a robotic splint. Once residual movement \nhas returned, EMG signals from the muscles will be \ndetected and used to power a robotic splint. For later \nstages and continuous enhanced rehabilitation of the \nupper limb, a Sensor Glove will be used for intense \nrehabilitation exercises of the hand. These combined \ntechniques cover all levels of ability for total upper \nlimb rehabilitation and will be used to provide \npositive feedback and motivation for patients.
OpenAlex reports 2 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
This paper highlights a progressive \nrehabilitation strategy which details the development \nof a suite of biomedical feedback sensors to promote \nenhanced rehabilitation after stroke. The strategy \ninvolves promoting total upper limb recovery by \nfocusing on aspects of each stage of post-stroke \nrehabilitation. For a patient with a complete absence \nof movement in the affected upper limb, brain \nsignals will be acquired using \near-Infrared \nSpectroscopy (IRS) combined with motor imagery \nto move a robotic splint. Once residual movement \nhas returned, EMG signals from the muscles will be \ndetected and used to power a robotic splint. For later \nstages and continuous enhanced rehabilitation of the \nupper limb, a Sensor Glove will be used for intense \nrehabilitation exercises of the hand. These combined \ntechniques cover all levels of ability for total upper \nlimb rehabilitation and will be used to provide \npositive feedback and motivation for patients.
Key concepts: Rehabilitation, Physical medicine and rehabilitation, Upper limb, Stroke (engine), Biofeedback, Splint (medicine), Psychology, Rehabilitation robotics