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. 2021 Aug 21;10(16):3718.
doi: 10.3390/jcm10163718.

Clinical Evaluation of Different Treatment Strategies for Motor Recovery in Poststroke Rehabilitation during the First 90 Days

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Clinical Evaluation of Different Treatment Strategies for Motor Recovery in Poststroke Rehabilitation during the First 90 Days

Ekaterina S Koroleva et al. J Clin Med. .

Abstract

Background: Motor recovery after stroke is based on neuronal plasticity and the structural reorganization of the brain. Questions are debated about the proper moment to start rehabilitation in the acute period of stroke, the significance of rehabilitation interventions during the so-called "plastic window", and the advantages of modern and traditional programs. The aims of this study were to evaluate the role of different rehabilitation strategies and their combinations for motor recovery and the impact on functional disability by way of neurological and functional outcomes 3 months after ischemic stroke.

Methods: We used three rehabilitation approaches: early rehabilitation from the first day of stroke (Phase I), traditional exercise programs (Phase II), and an author's new method of biofeedback rehabilitation using motion sensors and augmented reality (AR) rehabilitation (Phase III). Clinical and functional outcomes were measured on the 90th day after stroke. We developed algorithms for quantifying the quality of movements during the execution of tasks in the motor domains of the AR rehabilitation program.

Results: Phase I of rehabilitation led to an improvement in functional independence, and the recovery of motor functions of the extremities with an absence of mortality and clinical deterioration. AR rehabilitation led to significant improvement both with respect to clinical and functional scores on scales and to variables reflecting the quality of movements. Patients who were actively treated during Phases II and III achieved the same final level of motor recovery and functional outcomes as that of participants who had only received AR rehabilitation during Phase III. Patients who underwent outpatient observation after Phase I showed a deficit of spontaneous motor recovery on the 90th day after stroke.

Conclusions: Early rehabilitation was successful but was not enough; rehabilitation programs should be carried out throughout the entire "sensitive period" of poststroke plasticity. The newly developed AR biofeedback motion training is effective and safe as a separate rehabilitation method in the early recovery period of moderately severe, hemiparalytic, and ischemic stroke. These two rehabilitation approaches must be applied together or after each other, not instead of each other, as shown in clinical practice.

Keywords: augmented reality rehabilitation; clinical and functional outcomes; early recovery period; ischemic stroke; motor recovery; movement assessment.

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Conflict of interest statement

The authors declare no conflict of interest.

Figures

Figure 1
Figure 1
Study design.
Figure 2
Figure 2
Visual interfaces for AR rehabilitation tasks: (a) Accuracy domain: motor domain focused on the movement accuracy of the upper limb; (b) Statics domain: motor domain focused on the static–dynamic load of muscles of the upper limb; (c) Capture domain: motor domain focused on the capture and compression of muscles of the hand; (d) Balance domain: motor domain focused on maintaining balance and overcoming obstacles when walking.
Figure 3
Figure 3
Trajectory of movement during AR rehabilitation on 1st and 10th days (Patient from A group example): (a) 1st session. Trajectory of movement on X and Y coordinates of forefinger on left hand during the Static domain execution: red line is given trajectory, blue line is real trajectory of forefinger; (b) 10th session. Trajectory of movement on X and Y coordinates of forefinger on left hand during the Static domain execution: red line is given trajectory, blue line is real trajectory of forefinger; (c) 1st session. Height of raising the left foot during the Balance domain execution: red line is height of virtual obstacle, blue line is Y coordinate of left foot; (d) 10th session. Height of raising the left foot during Balance domain execution: red line is height of virtual obstacle, blue line is Y coordinate of left foot.

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