2015
DOI: 10.1016/j.gaitpost.2015.06.146
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Spastic hemiparetic gait pattern after over 6 month period of using carbon-fibre anterior leaf spring AFO? Flaws and advantages

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(2 citation statements)
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“…But different kinds of AFO have different special emphases according to their unique mechanical properties. For instance, the energy-storing, spring-like carbon-composite Ankle Foot Orthoses (Bregman et al, 2012); (Radtka et al, 2005); (Ploeger et al, 2015); (Alvela et al, 2015); (Meyns et al, 2016); (Kato et al, 2012); (Neviani, Borghi, Costi, & Ferrari, 2012) devote to reduce the energy cost of walking, and the active ankle foot orthosis (AAFO) (Hamid et al, 2012); (Ploeger et al, 2012); is prone to control critical ankle motion during dorsiflexion and plantarflexion automatically through using the flexiforce sensor, rather than adjusts it manually. On account that each patient has his own gait pattern and symptom, the effect of AFO seems to vary between patients (Westberry et al, 2007); (Haight, Russell Esposito, & Wilken, 2015); (Hyun, Kim, Han, & Kim, 2015); (van Beeten, Hartman, & Houdijk, 2015); (Ries & Schwartz, 2015); (Sabbagh, Fior, & Gentz, 2014).…”
Section: Discussionmentioning
confidence: 99%
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“…But different kinds of AFO have different special emphases according to their unique mechanical properties. For instance, the energy-storing, spring-like carbon-composite Ankle Foot Orthoses (Bregman et al, 2012); (Radtka et al, 2005); (Ploeger et al, 2015); (Alvela et al, 2015); (Meyns et al, 2016); (Kato et al, 2012); (Neviani, Borghi, Costi, & Ferrari, 2012) devote to reduce the energy cost of walking, and the active ankle foot orthosis (AAFO) (Hamid et al, 2012); (Ploeger et al, 2012); is prone to control critical ankle motion during dorsiflexion and plantarflexion automatically through using the flexiforce sensor, rather than adjusts it manually. On account that each patient has his own gait pattern and symptom, the effect of AFO seems to vary between patients (Westberry et al, 2007); (Haight, Russell Esposito, & Wilken, 2015); (Hyun, Kim, Han, & Kim, 2015); (van Beeten, Hartman, & Houdijk, 2015); (Ries & Schwartz, 2015); (Sabbagh, Fior, & Gentz, 2014).…”
Section: Discussionmentioning
confidence: 99%
“…However, with the development of technology and biomechanics, the structures and materials of the AFO have been improved considerably, the customized, multifunctional, suitable ankle-foot orthoses has come out (Tang, 2008). For instance, the energy-storing, spring-like carboncomposite Ankle Foot Orthoses (Bregman et al, 2012); (Radtka et al, 2005); (Ploeger et al, 2015); (Alvela et al, 2015); (Meyns et al, 2016); (Kato, Maeda, & Murakami, 2012), which can reduce the energy cost of walking by replacing a substantial part of the ankle work; the active ankle foot orthosis (AAFO), which can control critical ankle motion during dorsiflexion and plantarflexion automatically through using the flexiforce sensor (Hamid et al, 2012); (Ploeger et al, 2012); (Cruz & Dhaher, 2009), rather than adjust it manually. More and more high polymer materials are devoted to the fabrication of AFO (Tang, 2008).…”
Section: The Materials and Categories Of Afomentioning
confidence: 99%