The shared predictive roots of motor control and beat-based timing
Computational Neuroscience seminar by Dr Jonathan Cannon, MIT, USA
Hosted by Timing Research Forum
Tuesday 23:30–00:00 New York (GMT-5)
Recording available
Recording
Abstract
fMRI results have shown that the supplementary motor area (SMA) and the basal ganglia, most often discussed in their roles in generating action, are engaged by beat-based timing even in the absence of movement. Some have argued that the motor system is “recruited” by beat-based timing tasks due to the presence of motor-like timescales, but a deeper understanding of the roles of these motor structures is lacking. Reviewing a body of motor neurophysiology literature and drawing on the “active inference” framework, I argue that we can see the motor and timing functions of these brain areas as examples of dynamic sub-second prediction informed by sensory event timing. I hypothesize that in both cases, sub-second dynamics in SMA predict the progress of a temporal process outside the brain, and direct pathway activation in basal ganglia selects temporal and sensory predictions for the upcoming interval -- the only difference is that in motor processes, these predictions are made manifest through motor effectors. If we can unify our understanding of beat-based timing and motor control, we can draw on the substantial motor neuroscience literature to make conceptual leaps forward in the study of predictive timing and musical rhythm.
Topics
active inferencebasal gangliabeat-based timingmotor controlmotor neurophysiologymusical rhythmpredictive codingsensory event timing
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