<p>A) Representative example of a force and an EMG burst oscillations signal for 20 s. It is obvious that both signals exhibit common low-frequency oscillations. The dotted line represents low-pass filtered force and EMG burst at 2 Hz, whereas the solid line represents low-pass filtered force and EMG at 0.5 Hz. B) The overall coherence between the force and EMG burst oscillations when low-pass filtering the signals at 0.5 Hz and 2 Hz. The coherence for the two filtering procedures was similar, which indicates that low-pass filtering the force and EMG signals at 0.5 Hz captures well the synchrony between the two signals.</p
<p>Based on the multiple regression model, the change in power from 35–60 Hz in the interference EMG...
<p>Representative data for a single subject (Subject #2) showing the effect of rectifying and filter...
Traces show EMG data from one subject. Envelope output of the wavelet filter (black trace), midpoint...
<p>A) The force task (left column) and its corresponding interference EMG (right column). B) The for...
Force variability during constant force tasks is directly related to oscillations below 0.5 Hz in fo...
<p>For plot A, mean force values were subtracted from the force signals and force data were low pass...
<div><p>Force variability during constant force tasks is directly related to oscillations below 0.5 ...
<p>A: pooled (n = 8) coherence plots for each stimulus condition. B: pooled (n = 8) gain plots for e...
<p>The most left graphs (A,E,I) depict the coherence spectra within the 15–35 Hz frequency range for...
Using electroencephalography (EEG) and electromyography (EMG), corticomuscular and bilateral motor u...
2000). Phase coherence calculations between cortical oscillations coherence during a static and dyna...
Coherence between electromyographic (EMG) signals is often used to infer the common synaptic input t...
<p>Each trace shows examples of force and EMG in the left FDI and the level of each force in a typic...
<p>(A) Pooled spectral profiles of un-rectified and rectified EMG, (B) The means and standard errors...
<p>We explain these associations starting at the bottom of the diagram. The change in variability of...
<p>Based on the multiple regression model, the change in power from 35–60 Hz in the interference EMG...
<p>Representative data for a single subject (Subject #2) showing the effect of rectifying and filter...
Traces show EMG data from one subject. Envelope output of the wavelet filter (black trace), midpoint...
<p>A) The force task (left column) and its corresponding interference EMG (right column). B) The for...
Force variability during constant force tasks is directly related to oscillations below 0.5 Hz in fo...
<p>For plot A, mean force values were subtracted from the force signals and force data were low pass...
<div><p>Force variability during constant force tasks is directly related to oscillations below 0.5 ...
<p>A: pooled (n = 8) coherence plots for each stimulus condition. B: pooled (n = 8) gain plots for e...
<p>The most left graphs (A,E,I) depict the coherence spectra within the 15–35 Hz frequency range for...
Using electroencephalography (EEG) and electromyography (EMG), corticomuscular and bilateral motor u...
2000). Phase coherence calculations between cortical oscillations coherence during a static and dyna...
Coherence between electromyographic (EMG) signals is often used to infer the common synaptic input t...
<p>Each trace shows examples of force and EMG in the left FDI and the level of each force in a typic...
<p>(A) Pooled spectral profiles of un-rectified and rectified EMG, (B) The means and standard errors...
<p>We explain these associations starting at the bottom of the diagram. The change in variability of...
<p>Based on the multiple regression model, the change in power from 35–60 Hz in the interference EMG...
<p>Representative data for a single subject (Subject #2) showing the effect of rectifying and filter...
Traces show EMG data from one subject. Envelope output of the wavelet filter (black trace), midpoint...