上肢运动功能障碍与脑损伤后的运动学分裂有关

IF 1.4 3区 医学 Q4 ENGINEERING, BIOMEDICAL
Emilie Mathieu , David Gasq , Sylvain Crémoux , Célia Delcamp , Camille Cormier , Philippe Pudlo , David Amarantini
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引用次数: 0

摘要

背景脑损伤后运动障碍的特征对于个性化康复非常重要。虽然有研究报告称脑损伤患者在瘫痪和非瘫痪肘关节伸展运动学方面存在异常,但运动学分析并不足以探究患者如何处理肌肉骨骼冗余和运动执行的能量方面。相反,关节间协调和运动动力学可以反映患者的运动策略。本研究调查了脑损伤后上肢瘫痪和非瘫痪患者的运动策略,以突出运动缺陷或补偿策略。方法26名脑损伤偏瘫患者和24名健康对照者在水平面上进行主动伸肘运动,患者使用双上肢,对照者使用优势上肢。结果表明,患者双上肢的运动学发生了改变,肘部和肩部的角度以及达到肘部和肩部角速度峰值的时间之间存在很强的相关性。作为对运动学结果的补充,我们的运动学结果证实了患者难以在空间和时间上管理关节自由度的冗余,但也揭示了一种零散的代偿运动策略,使患者能够在质量改变和能效降低的情况下伸展上肢。运动康复应改善对这种片段策略的管理,以提高脑损伤后主动运动的表现和效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Upper limb motor dysfunction is associated with fragmented kinetics after brain injury

Background

Characterization of motor deficits after brain injury is important for rehabilitation personalization. While studies reported abnormalities in the kinematics of paretic and non-paretic elbow extension for patients with brain injuries, kinematic analysis is not sufficient to explore how patients deal with musculoskeletal redundancy and the energetic aspect of movement execution. Conversely, interarticular coordination and movement kinetics can reflect patients' motor strategies. This study investigates motor strategies of paretic and non-paretic upper limb after brain injury to highlight motor deficits or compensation strategies.

Methods

26 brain-injured hemiplegic patients and 24 healthy controls performed active elbow extensions in the horizontal plane, with both upper limbs for patients and, with the dominant upper limb for controls. Elbow and shoulder kinematics, interarticular coordination, net joint kinetics were quantified.

Findings

Results show alterations in kinematics, and a strong correlation between elbow and shoulder angles, as well as time to reach elbow and shoulder peak angular velocity in both upper limbs of patients. Net joint kinetics were lower for paretic limb and highlighted a fragmented motor strategy with increased number of transitions between concentric and eccentric phases.

Interpretation

In complement to kinematic results, our kinetic results confirmed patients' difficulties to manage both spatially and temporally the joint degrees of freedom redundancy but revealed a fragmented compensatory motor strategy allowing patients upper limb extension despite quality alteration and decrease in energy efficiency. Motor rehabilitation should improve the management of this fragmentation strategy to improve the performance and the efficiency of active movement after brain injury.

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来源期刊
Clinical Biomechanics
Clinical Biomechanics 医学-工程:生物医学
CiteScore
3.30
自引率
5.60%
发文量
189
审稿时长
12.3 weeks
期刊介绍: Clinical Biomechanics is an international multidisciplinary journal of biomechanics with a focus on medical and clinical applications of new knowledge in the field. The science of biomechanics helps explain the causes of cell, tissue, organ and body system disorders, and supports clinicians in the diagnosis, prognosis and evaluation of treatment methods and technologies. Clinical Biomechanics aims to strengthen the links between laboratory and clinic by publishing cutting-edge biomechanics research which helps to explain the causes of injury and disease, and which provides evidence contributing to improved clinical management. A rigorous peer review system is employed and every attempt is made to process and publish top-quality papers promptly. Clinical Biomechanics explores all facets of body system, organ, tissue and cell biomechanics, with an emphasis on medical and clinical applications of the basic science aspects. The role of basic science is therefore recognized in a medical or clinical context. The readership of the journal closely reflects its multi-disciplinary contents, being a balance of scientists, engineers and clinicians. The contents are in the form of research papers, brief reports, review papers and correspondence, whilst special interest issues and supplements are published from time to time. Disciplines covered include biomechanics and mechanobiology at all scales, bioengineering and use of tissue engineering and biomaterials for clinical applications, biophysics, as well as biomechanical aspects of medical robotics, ergonomics, physical and occupational therapeutics and rehabilitation.
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