An adaptive brain actuated system for augmenting rehabilitation

For people living with paralysis, restoration of hand function remains the top priority because it leads to independence and improvement in quality of life. In approaches to restore hand and arm function, a goal is to better engage voluntary control and counteract maladaptive brain reorganization th...

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Published in:Frontiers in neuroscience 2014-12, Vol.8, p.415-415
Main Authors: Roset, Scott A, Gant, Katie, Prasad, Abhishek, Sanchez, Justin C
Format: Article
Language:English
Subjects:
Arm
Brain
Brain-computer interface
Computer applications
Cortex (motor)
Electrical stimuli
Electroencephalography
Error-related potentials
Implants
Interfaces
Neurology
Neurorehabilitation
Neuroscience
Paralysis
Quality of life
Recovery of function
Rehabilitation
reinforcement learning
Spinal Cord Injuries
Stroke
Traumatic brain injury
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container_title Frontiers in neuroscience
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creator Roset, Scott A
Gant, Katie
Prasad, Abhishek
Sanchez, Justin C
description For people living with paralysis, restoration of hand function remains the top priority because it leads to independence and improvement in quality of life. In approaches to restore hand and arm function, a goal is to better engage voluntary control and counteract maladaptive brain reorganization that results from non-use. Standard rehabilitation augmented with developments from the study of brain-computer interfaces could provide a combined therapy approach for motor cortex rehabilitation and to alleviate motor impairments. In this paper, an adaptive brain-computer interface system intended for application to control a functional electrical stimulation (FES) device is developed as an experimental test bed for augmenting rehabilitation with a brain-computer interface. The system's performance is improved throughout rehabilitation by passive user feedback and reinforcement learning. By continuously adapting to the user's brain activity, similar adaptive systems could be used to support clinical brain-computer interface neurorehabilitation over multiple days.
doi_str_mv 10.3389/fnins.2014.00415
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subjects Arm
Brain
Brain-computer interface
Computer applications
Cortex (motor)
Electrical stimuli
Electroencephalography
Error-related potentials
Implants
Interfaces
Neurology
Neurorehabilitation
Neuroscience
Paralysis
Quality of life
Recovery of function
Rehabilitation
reinforcement learning
Spinal Cord Injuries
Stroke
Traumatic brain injury
title An adaptive brain actuated system for augmenting rehabilitation
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