<p>Blue color indicates gain responses about changing of visual amplitude and red color indicates gain responses about vibration. Solid line indicates intramodal reweighting and dashed line indicates intermodal reweighting. The asterisk indicates significant reweighting effects (** for p<.01 and * for p<.05). <b>A,</b> gain of the leg segment angle relative to vision. <b>B,</b> gain of the trunk segment angle relative to vision. <b>C,</b> phase of the leg segment angle relative to vision. <b>D,</b> phase of the trunk segment angle relative to vision. Error bars denote bootstrap standard errors.</p
Flexible and stable postural control requires adaptation to changing environmental conditions, a pro...
<p><b>(A</b>, <b>B</b>, <b>C)</b> Ankle anterio-posterior (AP), medio-lateral (ML) deviations (deg),...
<p>(<b>A</b>) Stimuli. Critical angle (CA) predictions (shaded areas) relati...
<p>Blue color indicates gain responses about changing of visual amplitude and red color indicates ga...
<p><b>A,</b> gain of the leg segment angle relative to vibration. <b>B,</b> gain of the trunk segmen...
<p>A–B: Gain and phase of FRF from visual scene angle to leg segment angle. C–D: Gain and phase of F...
<p>A: Gain of weighted EMG (all seven muscles from both ankle and hip) from visual scene angle. B: P...
<p>A–B: Gain and phase of FRF from platform angle to leg segment angle. C–D: Gain and phase of FRF f...
<p>A: Gain of weighted EMG (all seven muscles from both ankle and hip) from platform angle. B: Phase...
To investigate sensory reweighting as a fundamental property of sensor fusion during standing, we pr...
Funding for Open Access provided by the UMD Libraries Open Access Publishing Fund.To investigate sen...
We simultaneously perturbed visual, vestibular and proprioceptive modalities to understand how senso...
<p>Means values of the viewing conditions for the antero-posterior body sway (<b>A</b>) and for the ...
We simultaneously perturbed visual, vestibular and proprioceptive modalities to understand how senso...
Removing or adding sensory cues from one sensory system during standing balance causes a change in t...
Flexible and stable postural control requires adaptation to changing environmental conditions, a pro...
<p><b>(A</b>, <b>B</b>, <b>C)</b> Ankle anterio-posterior (AP), medio-lateral (ML) deviations (deg),...
<p>(<b>A</b>) Stimuli. Critical angle (CA) predictions (shaded areas) relati...
<p>Blue color indicates gain responses about changing of visual amplitude and red color indicates ga...
<p><b>A,</b> gain of the leg segment angle relative to vibration. <b>B,</b> gain of the trunk segmen...
<p>A–B: Gain and phase of FRF from visual scene angle to leg segment angle. C–D: Gain and phase of F...
<p>A: Gain of weighted EMG (all seven muscles from both ankle and hip) from visual scene angle. B: P...
<p>A–B: Gain and phase of FRF from platform angle to leg segment angle. C–D: Gain and phase of FRF f...
<p>A: Gain of weighted EMG (all seven muscles from both ankle and hip) from platform angle. B: Phase...
To investigate sensory reweighting as a fundamental property of sensor fusion during standing, we pr...
Funding for Open Access provided by the UMD Libraries Open Access Publishing Fund.To investigate sen...
We simultaneously perturbed visual, vestibular and proprioceptive modalities to understand how senso...
<p>Means values of the viewing conditions for the antero-posterior body sway (<b>A</b>) and for the ...
We simultaneously perturbed visual, vestibular and proprioceptive modalities to understand how senso...
Removing or adding sensory cues from one sensory system during standing balance causes a change in t...
Flexible and stable postural control requires adaptation to changing environmental conditions, a pro...
<p><b>(A</b>, <b>B</b>, <b>C)</b> Ankle anterio-posterior (AP), medio-lateral (ML) deviations (deg),...
<p>(<b>A</b>) Stimuli. Critical angle (CA) predictions (shaded areas) relati...