The article describes how visual experiences shape the brain’s feedback networks, showing that restricting early visual input in mice leads to structural and functional changes in both the primary visual cortex and its descending feedback pathways. Complex interactions between Hebbian and anti-Hebbian plasticity are proposed to explain how orientation preferences and receptive fields adapt to constrained visual statistics. The work combines in vivo imaging with computer modeling to illustrate how the brain’s wiring reflects environmental patterns.

This topic is of interest to psychology enthusiasts because it illuminates how perception and brain development are shaped by experience, linking sensory input to neural circuit adaptation and predictive processing. It highlights the dynamic nature of learning within neural networks and the mechanisms by which expectations influence perception.

Article Title: visual experience physically shapes the brain’s feedback loops

Link to PsyPost Article: https://nolinkpreview.com/www.psypost.org/brain-wiring-adapts-to-match-restricted-sight-in-goggle-wearing-mice/

#neuroscience #visualsystem #plasticity #Hebbian #antiHebbian #feedbackloops #corticalprocessing #predictivecoding #neuralwiring #sensorydevelopment

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How does #NeuralWiring adapt to different brain sizes? @mgpuxeddu @spornslab use #connectomics of 201 mammals with >10,000x range in brain size to show that spatial embedding constrains larger brains, giving more compact & well defined modules #PLOSBiology https://plos.io/48chjDX
Relation of connectome topology to brain volume across 103 mammalian species

How did neural wiring evolve to accommodate different brain volumes? By characterizing the connectome modular organization in more than 200 mammals with brain size varying over four orders of magnitude, this study shows that spatial embedding imposes tighter restrictions on larger brains, resulting in more spatially compact and well defined modules.