Nerve Transfer Rehabilitation
Nerve Transfer Rehabilitation - Related Videos
09:34
Structured Motor Rehabilitation After Selective Nerve Transfers
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Cited by 20 •
2019
Here, we present a protocol for the motor rehabilitation of patients with severe nerve injuries and selective nerve transfer surgery. It aims at restoring the motor function proposing several stages in patient education, early-stage therapy after surgery and interventions for rehabilitation after successful re-innervation of the nerve’s target.
02:30
Gene Transfer into Schwann Cells of the Rodent Sciatic Nerve via Electroporation
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2025
Source: Ino, D. et. al., In Vivo Gene Transfer to Schwann Cells in the Rodent Sciatic Nerve by Electroporation. J. Vis. Exp. (2016)This video demonstrates in vivo gene transfer to Schwann cells of the rodent sciatic nerve using electroporation. A plasmid DNA–dye solution is injected into the nerve, and electric pulses facilitate DNA entry. The DNA later integrates into the cell’s genome, enabling successful gene transfer in Schwann cells.
05:40
In Vivo Gene Transfer to Schwann Cells in the Rodent Sciatic Nerve by Electroporation
0 Views •
Cited by 4 •
2016
Here, we present an in vivo technique for gene transfer to Schwann cells (SCs) in the rodent sciatic nerve. This simple technique is useful for investigating signaling mechanisms involved in the development and maintenance of myelinating SCs.
05:52
Mobile Game-based Virtual Reality Program for Upper Extremity Stroke Rehabilitation
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Cited by 102 •
2018
Here, we present a protocol to develop and apply a mobile game-based virtual reality program for the recovery of upper limb dysfunction in patients with stroke. The present study shows that the mobile program is feasible and effectively promotes upper limb recovery in stroke patients.
13:44
Haptic/Graphic Rehabilitation: Integrating a Robot into a Virtual Environment Library and Applying it to Stroke Therapy
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Cited by 8 •
2011
Recently, a vast amount of prospects have come available for human-robot interactive systems. In this paper we outline the integration of a new robotic device with open source software that can rapidly make possible a library of interactive functionality. We then outline a clinical application for a neurorehabilitation application.
FAQs
Axons must regrow across the nerve junction before the target muscles can be reinnervated. This creates a biological delay between surgery and meaningful functional improvement. As reinnervation develops, rehabilitation can progress from protecting the healing connection toward strengthening and purposeful movement practice. The extent and timing of recovery therefore depend on both nerve regeneration and the clinical return of function.
The brain must gradually learn to associate the donor nerve’s activity with the target movement it now controls. Motor re-education supports this adaptation by repeatedly practicing the emerging function, while task-specific exercises help connect the new movement pattern with useful activities. This retraining is important because reinnervation alone does not immediately produce coordinated, independent movement.
Progression follows the biological and clinical course of recovery rather than a fixed schedule. Protected healing is prioritized early, while later stages depend on evidence of reinnervation, improving movement, and the person’s ability to tolerate strengthening and practice. Clinicians adjust rehabilitation timing to nerve regeneration and observed recovery so that activity supports function without overlooking the healing process.
A program typically begins with protected healing, then advances as recovery permits through progressive strengthening, sensory and motor re-education, and task-specific practice. These components address different needs: protection supports the repaired nerve, strengthening addresses emerging weakness, re-education develops control, and functional tasks apply recovered movement. The sequence is adjusted to the individual’s nerve regeneration and clinical progress.
Clinical recovery provides the basis for judging whether reinnervation is occurring and whether rehabilitation should advance. Clinicians monitor the return of movement and function while considering persistent or secondary weakness. These observations help guide strengthening, sensory and motor re-education, and task practice. Assessment therefore links biological nerve recovery with practical decisions about the next rehabilitation goals.
This approach is used after traumatic peripheral nerve injuries when restoring movement and function is a clinical priority. Its goals extend beyond initial recovery: rehabilitation helps clinicians track reinnervation, address secondary weakness, and develop useful motor control through repeated practice. By focusing on functional tasks and progressive independence, the process supports longer-term participation in everyday activities.