The effect of joint translation constraint on within-participant variability of kinematics and kinetics during running in cerebral palsy

Biomechanical data in cerebral palsy are inherently variable but no optimal model of translational joint constraint has been identified. The primary aim of this study was to determine which model of translational joint constraint resulted in the lowest within-participant variability of lower limb jo...

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Bibliographic Details
Published in:	Clinical biomechanics (Bristol) 2019-03, Vol.63, p.54-62
Main Authors:	Chappell, A., Liew, B., Murphy, A.T., Gibson, N., Allison, G.T., Williams, G., Morris, S.L.
Format:	Article
Language:	eng
Subjects:	Adolescent Biomechanical Phenomena Biomechanics Cerebral Palsy - physiopathology Child Female Gait Humans Imaging, Three-Dimensional Kinematics Kinetics Knee Joint - physiopathology Male Modelling Range of Motion, Articular Running Young Adult
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Summary:	Biomechanical data in cerebral palsy are inherently variable but no optimal model of translational joint constraint has been identified. The primary aim of this study was to determine which model of translational joint constraint resulted in the lowest within-participant variability of lower limb joint angles and moments. The secondary aim was to determine which model best distinguished known functional groups in Cerebral Palsy. Three models (three degrees of freedom, six degrees of freedom and six degrees of freedom with specified joint translation constraint) were applied to data from running trials of 40 children with cerebral palsy. Joint angle standard deviations were largest using the six degrees of freedom model and smallest using the constrained six degrees of freedom model (p
ISSN:	0268-0033 1879-1271