The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking

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Standard

The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking. / Baldvinsson, Henrik Koblauch; Heilskov-Hansen, Thomas; Alkjær, Tine; Simonsen, Erik B; Henriksen, Marius.

I: Journal of Applied Biomechanics, Bind 29, Nr. 3, 2013, s. 329-35.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Baldvinsson, HK, Heilskov-Hansen, T, Alkjær, T, Simonsen, EB & Henriksen, M 2013, 'The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking', Journal of Applied Biomechanics, bind 29, nr. 3, s. 329-35.

APA

Baldvinsson, H. K., Heilskov-Hansen, T., Alkjær, T., Simonsen, E. B., & Henriksen, M. (2013). The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking. Journal of Applied Biomechanics, 29(3), 329-35.

Vancouver

Baldvinsson HK, Heilskov-Hansen T, Alkjær T, Simonsen EB, Henriksen M. The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking. Journal of Applied Biomechanics. 2013;29(3):329-35.

Author

Baldvinsson, Henrik Koblauch ; Heilskov-Hansen, Thomas ; Alkjær, Tine ; Simonsen, Erik B ; Henriksen, Marius. / The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking. I: Journal of Applied Biomechanics. 2013 ; Bind 29, Nr. 3. s. 329-35.

Bibtex

@article{89143cd8039e4c11a66fba11705121ed,
title = "The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking",
abstract = "It is unclear how rotations of the lower limb affect the knee joint compression forces during walking. Increases in the frontal plane knee moment have been reported when walking with internally rotated feet and a decrease when walking with externally rotated feet. The aim of this study was to investigate the knee joint compressive forces during walking with internal, external and normal foot rotation and to determine if the frontal plane knee joint moment is an adequate surrogate for the compression forces in the medial and lateral knee joint compartments under such gait modifications. Ten healthy males walked at a fixed speed of 4.5 km/h under three conditions: Normal walking, internally rotated and externally rotated. All gait-trials were recorded by six infrared cameras. Net joint moments were calculated by 3D inverse dynamics. The results revealed that the medial knee joint compartment compression force increased during EFR and the lateral knee joint compartment compression force increased during IFR. The increases in joint loads may be a result of increased knee flexion angles. Further these data suggest that the frontal plane knee joint moment is not a valid surrogate measure for knee joint compression forces but rather indicates the medial-to-lateral load distribution.",
author = "Baldvinsson, {Henrik Koblauch} and Thomas Heilskov-Hansen and Tine Alkj{\ae}r and Simonsen, {Erik B} and Marius Henriksen",
year = "2013",
language = "English",
volume = "29",
pages = "329--35",
journal = "Journal of Applied Biomechanics",
issn = "1065-8483",
publisher = "Human Kinetics, Inc",
number = "3",

}

RIS

TY - JOUR

T1 - The Effect of Foot Progression Angle on Knee Joint Compression Force during Walking

AU - Baldvinsson, Henrik Koblauch

AU - Heilskov-Hansen, Thomas

AU - Alkjær, Tine

AU - Simonsen, Erik B

AU - Henriksen, Marius

PY - 2013

Y1 - 2013

N2 - It is unclear how rotations of the lower limb affect the knee joint compression forces during walking. Increases in the frontal plane knee moment have been reported when walking with internally rotated feet and a decrease when walking with externally rotated feet. The aim of this study was to investigate the knee joint compressive forces during walking with internal, external and normal foot rotation and to determine if the frontal plane knee joint moment is an adequate surrogate for the compression forces in the medial and lateral knee joint compartments under such gait modifications. Ten healthy males walked at a fixed speed of 4.5 km/h under three conditions: Normal walking, internally rotated and externally rotated. All gait-trials were recorded by six infrared cameras. Net joint moments were calculated by 3D inverse dynamics. The results revealed that the medial knee joint compartment compression force increased during EFR and the lateral knee joint compartment compression force increased during IFR. The increases in joint loads may be a result of increased knee flexion angles. Further these data suggest that the frontal plane knee joint moment is not a valid surrogate measure for knee joint compression forces but rather indicates the medial-to-lateral load distribution.

AB - It is unclear how rotations of the lower limb affect the knee joint compression forces during walking. Increases in the frontal plane knee moment have been reported when walking with internally rotated feet and a decrease when walking with externally rotated feet. The aim of this study was to investigate the knee joint compressive forces during walking with internal, external and normal foot rotation and to determine if the frontal plane knee joint moment is an adequate surrogate for the compression forces in the medial and lateral knee joint compartments under such gait modifications. Ten healthy males walked at a fixed speed of 4.5 km/h under three conditions: Normal walking, internally rotated and externally rotated. All gait-trials were recorded by six infrared cameras. Net joint moments were calculated by 3D inverse dynamics. The results revealed that the medial knee joint compartment compression force increased during EFR and the lateral knee joint compartment compression force increased during IFR. The increases in joint loads may be a result of increased knee flexion angles. Further these data suggest that the frontal plane knee joint moment is not a valid surrogate measure for knee joint compression forces but rather indicates the medial-to-lateral load distribution.

M3 - Journal article

C2 - 22923424

VL - 29

SP - 329

EP - 335

JO - Journal of Applied Biomechanics

JF - Journal of Applied Biomechanics

SN - 1065-8483

IS - 3

ER -

ID: 40533655