Searched for: author%3A%22Van%255C+der%255C+Kooij%252C%255C+H.%22
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van Mierlo, Michelle (author), Ormiston, Jean A. (author), Vlutters, Mark (author), Van Asseldonk, Edwin H.F. (author), van der Kooij, H. (author)
Increasing knowledge on human balance recovery strategies is important for the development of balance assistance strategies using assistive devices like a powered lower-limb exoskeleton. One of the postures which is relevant for this scenario, but underexposed in research, is staggered stance, a posture with one foot in front. We therefore aimed...
journal article 2023
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van Mierlo, M. (author), Vlutters, M. (author), van Asseldonk, E. H.F. (author), van der Kooij, H. (author)
Spatiotemporal gait characteristics change during very slow walking, a relevant speed considering individuals with movement disorders or using assistive devices. However, we lack insights in how very slow walking affects human balance control. Therefore, we aimed to identify how healthy individuals use balance strategies while walking very...
journal article 2023
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van Mierlo, M. (author), Abma, M. (author), Vlutters, M. (author), van Asseldonk, E. H.F. (author), van der Kooij, H. (author)
Humans prioritize regulation of the whole-body angular momentum (WBAM) during walking. When perturbed, modulations of the moment arm of the ground reaction force (GRF) with respect to the centre of mass (CoM) assist in recovering WBAM. For sagittal-plane perturbations of the WBAM given at toe off right (TOR), horizontal GRF modulations and...
journal article 2023
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van Mierlo, M. (author), Ambrosius, J. I. (author), Vlutters, M. (author), van Asseldonk, E. H.F. (author), van der Kooij, H. (author)
Healthy individuals highly regulate their whole body angular momentum (WBAM) during walking. Since WBAM regulation is essential in maintaining balance, a better understanding is required on how healthy individuals recover from WBAM perturbations. We therefore studied how healthy individuals recover WBAM in the sagittal plane. WBAM can be...
journal article 2022
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van Mierlo, M. (author), Vlutters, M. (author), van Asseldonk, E. H.F. (author), van der Kooij, H. (author)
Centre of mass (CoM) motion during human balance recovery is largely influenced by the ground reaction force (GRF) and the centre of pressure (CoP). During gait, foot placement creates a region of possible CoP locations in the following double support (DS). This study aims to increase insight into how humans modulate the CoP during DS, and...
journal article 2021
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Forbes, P.A. (author), Vlutters, M (author), Dakin, CJ (author), van der Kooij, H. (author), Blouin, JS (author), Schouten, A.C. (author)
During walking, the vestibular influence on locomotor activity is phase-dependent and modulated in both limbs with changes in velocity. It is unclear, however, whether this bilateral modulation is due to a coordinated mechanism between both limbs or instead through limb-specific processes that remain masked by the symmetric nature of locomotion....
journal article 2017
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Vlutters, M (author), van Asseldonk, EHF (author), van der Kooij, H. (author)
In many simple walking models, foot placement dictates the center of pressure location and ground reaction force components, whereas humans can modulate these aspects after foot contact. Because of the differences, it is unclear to what extent predictions made by models are valid for human walking. Yet, both model simulations and human...
journal article 2016
Searched for: author%3A%22Van%255C+der%255C+Kooij%252C%255C+H.%22
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