Modelling the complexity of the foot and ankle during human locomotion: the development and validation of a multi-segment foot model using biplanar videoradiography

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Maharaj, Jayishni N
Rainbow, Michael J
Cresswell, Andrew G
Kessler, Sarah
Konow, Nicolai
Gehring, Dominic
Lichtwark, Glen A
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2021
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Abstract

We developed and validated a multi-segment foot and ankle model for human walking and running. The model has 6-segments, and 7 degrees of freedom; motion between foot segments were constrained with a single oblique axis to enable triplanar motion [Joint Constrained (JC) model]. The accuracy of the JC model and that of a conventional model using a 6 degrees of freedom approach were assessed by comparison to segment motion determined with biplanar videoradiography. Compared to the 6-DoF model, our JC model demonstrated significantly smaller RMS differences [JC: 2.19° (1.43–2.73); 6-DoF: 3.25° (1.37–5.89)] across walking and running. The JC model is thus capable of more accurate musculoskeletal analyses and is also well suited for predictive simulations.

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Computer Methods in Biomechanics and Biomedical Engineering

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25

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5

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Dentistry

Biomedical engineering

Science & Technology

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Computer Science, Interdisciplinary Applications

Computer Science

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Maharaj, JN; Rainbow, MJ; Cresswell, AG; Kessler, S; Konow, N; Gehring, D; Lichtwark, GA, Modelling the complexity of the foot and ankle during human locomotion: the development and validation of a multi-segment foot model using biplanar videoradiography, Computer Methods in Biomechanics and Biomedical Engineering, 2021, 25 (5), pp. 554-565

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