Visceral afferent training in action: The origins of agency in early cognitive development

The foetal period constitutes a critical stage in the construction and organisation of the mammalian nervous system. In recent work, we have proposed that foetal brain development is structured by bottom-up (interoceptive) inputs from spontaneous physiological rhythms such as the heartbeat (Corcoran et al., 2023). Here, we expand this 'visceral afferent training' hypothesis to incorporate the development of top-down (allostatic) control over bodily states. We conceptualise the emergence of cardiac regulation as an early instance of sensorimotor contingency learning that scaffolds the development of agentic control. We further propose that the brain's capacity to actively modify and regulate the afferent feedback it receives through interoceptive channels – and to parse these signals into their self-generated (reafferent) and externally-generated (exafferent) components – is crucial for grounding the distinction between self and other. Finally, we explore how individual differences in the ways these training regimes are implemented (or disrupted) might impact developmental trajectories in gestation and infancy, potentiating neurobehavioural diversity and disease risk in later life.

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Publication Details

Journal
Developmental Review
Published
2024-12-28
DOI
https://doi.org/10.1016/j.dr.2024.101184
Citations
2
Primary Topic
Child and Animal Learning Development
Type
article
Field-Weighted Citation Impact
1.58

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article

Visceral afferent training in action: The origins of agency in early cognitive development

Andrew W. Corcoran, Daniel Feuerriegel, Jonathan Robinson, Kelsey Perrykkad
2 citations
Developmental Review
Child and Animal Learning Development
1.58
article

Visceral afferent training in action: The origins of agency in early cognitive development

Andrew W. Corcoran, Daniel Feuerriegel, Jonathan Robinson, Kelsey Perrykkad
article en
2 citations

Abstract

The foetal period constitutes a critical stage in the construction and organisation of the mammalian nervous system. In recent work, we have proposed that foetal brain development is structured by bottom-up (interoceptive) inputs from spontaneous physiological rhythms such as the heartbeat (Corcoran et al., 2023). Here, we expand this 'visceral afferent training' hypothesis to incorporate the development of top-down (allostatic) control over bodily states. We conceptualise the emergence of cardiac regulation as an early instance of sensorimotor contingency learning that scaffolds the development of agentic control. We further propose that the brain's capacity to actively modify and regulate the afferent feedback it receives through interoceptive channels – and to parse these signals into their self-generated (reafferent) and externally-generated (exafferent) components – is crucial for grounding the distinction between self and other. Finally, we explore how individual differences in the ways these training regimes are implemented (or disrupted) might impact developmental trajectories in gestation and infancy, potentiating neurobehavioural diversity and disease risk in later life.

Developmental ReviewVol. 75
Australian Government
Reduced inequalities
Openalex Percentile: Top 14%
Child and Animal Learning Development
1.58
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Visceral afferent training in action: The origins of agency in early cognitive development — Andrew W. Corcoran, Daniel Feuerriegel, et al. · Developmental Review (2024) | TGRS Research Map | TGRS