Using functional calibration methods to estimate the midfoot joint center in planovalgus feet.

IF 2.4 3区 医学 Q3 BIOPHYSICS
Journal of biomechanics Pub Date : 2025-02-01 Epub Date: 2025-01-02 DOI:10.1016/j.jbiomech.2025.112493
Sarah Campos, Firooz Salami, Marco Götze, Katharina Gather, Sebastian I Wolf
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Abstract

In order to improve the understanding foot function in the presence of planovalgus foot deformity, functional joint center determination is applied to the ankle and midfoot for application in 3D-gait analysis. Gait data of 36 patients with planovalgus (PV) foot deformity as well as of 33 typically developing (TD) subjects were collected using foot markers according to the Heidelberg Foot Measurement method. During single-limb stance subjects performed a circular movement of the foot and ankle (CIR) by drawing a circle with the hallux in the air. Midfoot joint center location as well as kinematics was calculated based (a) on functional calibration, (b) via a simple midpoint approach, and (c) via linear regression. All typically developing participants were able to perform the CIR movement with sufficient ROM for calibration whereas 10 % of the participants with idiopathic PV foot deformity and 72 % of the participants with a neurogenic PV foot were not able to perform this movement adequately. Nevertheless, the regression approach led to almost the same location of the midfoot joint center compared to the functional method with similar kinematics. PV feet show substantially larger Forefoot/Hindfoot flexion and Forefoot/Hindfoot adduction in gait compared to TD feet. On top, feet with neurologic background show reduced ROM of these angles in gait. The CIR movement task may prove useful in future studies monitoring active ranges of ankle and midfoot motion since the kinematics of this task may also be directly assessed via the proposed regression approach.

应用功能标定方法估计平外翻足的足中部关节中心。
为了提高对足跖外翻畸形足部功能的理解,将功能关节中心测定应用于踝关节和足中部,用于3d步态分析。根据Heidelberg足部测量法,采用足部标记物收集36例平外翻足畸形患者和33例正常发育(TD)受试者的步态数据。在单肢站立时,受试者通过在空中画一个圆圈来完成脚和脚踝的圆周运动(CIR)。根据(a)功能校准,(b)通过简单的中点方法,(c)通过线性回归计算足中部关节中心位置和运动学。所有正常发育的参与者都能够进行CIR运动,并有足够的ROM进行校准,而10%的特发性PV足畸形参与者和72%的神经源性PV足参与者无法充分完成该运动。然而,与具有相似运动学的功能方法相比,回归方法导致了几乎相同的足中部关节中心位置。与TD足相比,PV足在步态中表现出更大的前/后足屈曲和前/后足内收。在上面,有神经学背景的脚在步态中显示出这些角度的ROM减少。CIR运动任务可能在未来监测踝关节和足中部活动范围的研究中被证明是有用的,因为该任务的运动学也可以通过提出的回归方法直接评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of biomechanics
Journal of biomechanics 生物-工程:生物医学
CiteScore
5.10
自引率
4.20%
发文量
345
审稿时长
1 months
期刊介绍: The Journal of Biomechanics publishes reports of original and substantial findings using the principles of mechanics to explore biological problems. Analytical, as well as experimental papers may be submitted, and the journal accepts original articles, surveys and perspective articles (usually by Editorial invitation only), book reviews and letters to the Editor. The criteria for acceptance of manuscripts include excellence, novelty, significance, clarity, conciseness and interest to the readership. Papers published in the journal may cover a wide range of topics in biomechanics, including, but not limited to: -Fundamental Topics - Biomechanics of the musculoskeletal, cardiovascular, and respiratory systems, mechanics of hard and soft tissues, biofluid mechanics, mechanics of prostheses and implant-tissue interfaces, mechanics of cells. -Cardiovascular and Respiratory Biomechanics - Mechanics of blood-flow, air-flow, mechanics of the soft tissues, flow-tissue or flow-prosthesis interactions. -Cell Biomechanics - Biomechanic analyses of cells, membranes and sub-cellular structures; the relationship of the mechanical environment to cell and tissue response. -Dental Biomechanics - Design and analysis of dental tissues and prostheses, mechanics of chewing. -Functional Tissue Engineering - The role of biomechanical factors in engineered tissue replacements and regenerative medicine. -Injury Biomechanics - Mechanics of impact and trauma, dynamics of man-machine interaction. -Molecular Biomechanics - Mechanical analyses of biomolecules. -Orthopedic Biomechanics - Mechanics of fracture and fracture fixation, mechanics of implants and implant fixation, mechanics of bones and joints, wear of natural and artificial joints. -Rehabilitation Biomechanics - Analyses of gait, mechanics of prosthetics and orthotics. -Sports Biomechanics - Mechanical analyses of sports performance.
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