<p>T-tests for Experiment 2 indicate whether the differences between Session 1 and 2 were reliable (t-values larger than the critical t-value with< = .05 are underlined). All latencies are in ms. DV = dependent variable. RT = reaction time in ms (RT 1 = RT for first response; RT 2 = RT for second response on double-signal trials). Stop-signal reaction times (SSRT) were estimated using the integration method <a href="http://www.plosone.org/article/info:doi/10.1371/journal.pone.0070155#pone.0070155-Verbruggen5" target="_blank">[38]</a>.</p
<p>A,B: distance of participants from the centre of exit D2 over time. A and B show the data for dif...
<p>(Left) Error rates decreased with practice, and the number of errors were greater for Go stimuli ...
<p><b>(A)</b> Mean percentage of trials that were successful or ended in an error or time-out. <b>(B...
Response inhibition plays a critical role in adaptive functioning and can be assessed with the Stop-...
<p>(<b>A</b>) Distributions of response time (RT) in go trials obtained from all 15 subjects (left: ...
Response inhibition plays a critical role in adaptive functioning and can be assessed with the Stop-...
Various behavioural tasks measure response inhibition encompassing the ability to cancel unwanted ac...
<p>Values of all different parameters analyzed in the task are shown, separated for easy and hard di...
<p>Behavioral performance (% correct responses, upper panel) and reaction times (lower panel) for ea...
<p><b>a.</b> Accuracy (% correct) as a function of reaction time for one subject in a block of trial...
The Stop Signal Reaction Time (SSRT) is a latency measurement for the unobservable human brain stopp...
<p>(A) Temporal response function (TRF) results for Experiment 2 (75% cue validity). Left: grand ave...
The stop-signal paradigm is a popular method for examining response inhibition and impulse control i...
<p>In A, B, and C behavioral data for N = 10 subjects are represented in dashed red lines with the r...
The stop-signal paradigm is a popular method for examining response inhibition and impulse control i...
<p>A,B: distance of participants from the centre of exit D2 over time. A and B show the data for dif...
<p>(Left) Error rates decreased with practice, and the number of errors were greater for Go stimuli ...
<p><b>(A)</b> Mean percentage of trials that were successful or ended in an error or time-out. <b>(B...
Response inhibition plays a critical role in adaptive functioning and can be assessed with the Stop-...
<p>(<b>A</b>) Distributions of response time (RT) in go trials obtained from all 15 subjects (left: ...
Response inhibition plays a critical role in adaptive functioning and can be assessed with the Stop-...
Various behavioural tasks measure response inhibition encompassing the ability to cancel unwanted ac...
<p>Values of all different parameters analyzed in the task are shown, separated for easy and hard di...
<p>Behavioral performance (% correct responses, upper panel) and reaction times (lower panel) for ea...
<p><b>a.</b> Accuracy (% correct) as a function of reaction time for one subject in a block of trial...
The Stop Signal Reaction Time (SSRT) is a latency measurement for the unobservable human brain stopp...
<p>(A) Temporal response function (TRF) results for Experiment 2 (75% cue validity). Left: grand ave...
The stop-signal paradigm is a popular method for examining response inhibition and impulse control i...
<p>In A, B, and C behavioral data for N = 10 subjects are represented in dashed red lines with the r...
The stop-signal paradigm is a popular method for examining response inhibition and impulse control i...
<p>A,B: distance of participants from the centre of exit D2 over time. A and B show the data for dif...
<p>(Left) Error rates decreased with practice, and the number of errors were greater for Go stimuli ...
<p><b>(A)</b> Mean percentage of trials that were successful or ended in an error or time-out. <b>(B...