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Published in: Brain Structure and Function 3/2013

Open Access 01-05-2013 | Review

Predictions not commands: active inference in the motor system

Authors: Rick A. Adams, Stewart Shipp, Karl J. Friston

Published in: Brain Structure and Function | Issue 3/2013

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Abstract

The descending projections from motor cortex share many features with top-down or backward connections in visual cortex; for example, corticospinal projections originate in infragranular layers, are highly divergent and (along with descending cortico-cortical projections) target cells expressing NMDA receptors. This is somewhat paradoxical because backward modulatory characteristics would not be expected of driving motor command signals. We resolve this apparent paradox using a functional characterisation of the motor system based on Helmholtz’s ideas about perception; namely, that perception is inference on the causes of visual sensations. We explain behaviour in terms of inference on the causes of proprioceptive sensations. This explanation appeals to active inference, in which higher cortical levels send descending proprioceptive predictions, rather than motor commands. This process mirrors perceptual inference in sensory cortex, where descending connections convey predictions, while ascending connections convey prediction errors. The anatomical substrate of this recurrent message passing is a hierarchical system consisting of functionally asymmetric driving (ascending) and modulatory (descending) connections: an arrangement that we show is almost exactly recapitulated in the motor system, in terms of its laminar, topographic and physiological characteristics. This perspective casts classical motor reflexes as minimising prediction errors and may provide a principled explanation for why motor cortex is agranular.
Appendix
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Footnotes
1
Another way to put this is that command signals live in a space of motor effectors, whose dimensionality is equal to the number of (extrafusal) neuromuscular junctions—this is the output of the motor neurons. Predictions live in the space of sensory receptors, whose dimensionality is equal to the number of primary afferents—this is input to the motor neurons.
 
2
As noted by our reviewers, predictions of muscle torque (reported by Ib afferents) might be construed as motor commands, not proprioceptive consequences. The key point here is that the Ib inhibitory interneurons that receive descending predictions do not just receive torque information from Ib afferents, but also inputs from muscle spindles via Ia afferents, articular afferents and low-threshold afferent fibres from cutaneous receptors. It is therefore most accurate to describe the descending prediction of Ib activity as not simply a ‘prediction of torque’, but a ‘prediction of torque in a particular context’. It is this contextual aspect of the prediction that differentiates it from a motor command, which would not be context-dependent. Furthermore, under active inference, actions minimise sensory prediction error not just on position, but also on velocity, acceleration, jerk, smoothness, etc. (Friston et al. 2010). This means proprioceptive predictions will necessarily have a torque component, but they cannot generate this torque: this is the job of the spinal reflex arc.
 
3
Thalamic terminology follows the scheme of Macchi and Jones (1997).
 
4
An earlier body of work employing peripheral nerve stimulation provided substantial indirect evidence that sensory input could be conveyed to M1 via dorsal column (lemniscal) input to thalamic VLp nucleus; especially a subnucleus known as VPLo (Asanuma et al. 1980; Horne and Tracey 1979; Lemon and van der Burg 1979). But, conversely, several anatomical studies specifically failed to offer any evidence for such lemniscal input to VPLo (Asanuma et al. 1980, 1983; Hirai and Jones 1988; Kalil 1981; Tracey et al. 1980). The conflict in these observations has yet to be satisfactorily resolved.
 
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Metadata
Title
Predictions not commands: active inference in the motor system
Authors
Rick A. Adams
Stewart Shipp
Karl J. Friston
Publication date
01-05-2013
Publisher
Springer-Verlag
Published in
Brain Structure and Function / Issue 3/2013
Print ISSN: 1863-2653
Electronic ISSN: 1863-2661
DOI
https://doi.org/10.1007/s00429-012-0475-5

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