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Neural structure of a sensory decoder for motor control

Medicine and Health

Neural structure of a sensory decoder for motor control

S. W. Egger and S. G. Lisberger

This groundbreaking research by Seth W. Egger and Stephen G. Lisberger unveils the neural intricacies behind transforming sensory inputs into smooth pursuit eye movements, revealing how target size disrupts established psychophysical norms. Discover a novel model that redefines our understanding of sensory decoding!

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Playback language: English
Abstract
This research investigates the neural mechanisms underlying the transformation of sensory input into motor output, focusing on smooth pursuit eye movements. The study challenges the traditional "signal-dependent noise" model by demonstrating that target size significantly alters the relationship between behavioral variance and mean, contradicting established psychophysical laws. A novel circuit model incorporating multiple parallel pathways and noise in the gain control pathway is proposed to account for these findings. The model successfully reproduces behavioral and neural response statistics, highlighting the importance of considering parallel processing and pathway-specific noise in sensory decoding.
Publisher
Nature Communications
Published On
Apr 05, 2022
Authors
Seth W. Egger, Stephen G. Lisberger
Tags
neural mechanisms
smooth pursuit eye movements
target size
behavioral variance
psychophysical laws
parallel processing
gain control
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