In A) and B) we predict the rate of learning (λ; y-axis) after varying motor (σm, deg; x-axis) and exploratory (σe, deg; different shaded lines) contributions to movement variability, when the our learning model experiences the steep (blue) and shallow (orange) landscapes, respectively (n = 10, 000 per data point). In both A) and B) we find that increasing either σm or σe leads to a faster rate of learning (i.e., lower magnitudes of λ).</p
Recent studies show that motor variability is actively regulated as an exploration tool to promote l...
<p><b>(A)</b> Representative participant data showing how a reaching trajectory is gradually updated...
In motor learning, our brain uses movement errors to adjust planning of future movements. This proce...
It has recently been suggested that movement variability directly increases the speed of motor learn...
<p>(A) Initial directional deviation of movements to the learned target (LT), as a function of the n...
<p><b>(A)</b> How movement variance in the movements changes during the course of the learning proce...
Motor learning is driven by movement errors. The speed of learning can be quantified by the learning...
<p>The learning trend versus trial number for the conditions of Experiment 2 and Experiment 3 plus a...
Motor learning is driven by movement errors. The speed of learning can be quantified by the learning...
Reach angle (y-axis) over trials (x-axis) when using our learning model to simulate an ‘individual’ ...
<p><b>A</b> Simulated set of 45 movement endpoints if learning rate <i>B</i> = 0 (i.e., no correctio...
Accurate measurement is crucial for understanding the processes that underlie exploratory patterns i...
<div><p>(A–C) Anterograde interference.</p> <p>(D–F) Rapid unlearning.</p> <p>(G...
In a recent paper, Flament et al. studied the process of learning to flex the elbow faster. They con...
We investigated motor skill learning using a path tracking task, where human subjects had to track v...
Recent studies show that motor variability is actively regulated as an exploration tool to promote l...
<p><b>(A)</b> Representative participant data showing how a reaching trajectory is gradually updated...
In motor learning, our brain uses movement errors to adjust planning of future movements. This proce...
It has recently been suggested that movement variability directly increases the speed of motor learn...
<p>(A) Initial directional deviation of movements to the learned target (LT), as a function of the n...
<p><b>(A)</b> How movement variance in the movements changes during the course of the learning proce...
Motor learning is driven by movement errors. The speed of learning can be quantified by the learning...
<p>The learning trend versus trial number for the conditions of Experiment 2 and Experiment 3 plus a...
Motor learning is driven by movement errors. The speed of learning can be quantified by the learning...
Reach angle (y-axis) over trials (x-axis) when using our learning model to simulate an ‘individual’ ...
<p><b>A</b> Simulated set of 45 movement endpoints if learning rate <i>B</i> = 0 (i.e., no correctio...
Accurate measurement is crucial for understanding the processes that underlie exploratory patterns i...
<div><p>(A–C) Anterograde interference.</p> <p>(D–F) Rapid unlearning.</p> <p>(G...
In a recent paper, Flament et al. studied the process of learning to flex the elbow faster. They con...
We investigated motor skill learning using a path tracking task, where human subjects had to track v...
Recent studies show that motor variability is actively regulated as an exploration tool to promote l...
<p><b>(A)</b> Representative participant data showing how a reaching trajectory is gradually updated...
In motor learning, our brain uses movement errors to adjust planning of future movements. This proce...