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Neural and computational underpinnings of biased confidence in human reinforcement learning

Psychology

Neural and computational underpinnings of biased confidence in human reinforcement learning

C. Ting, N. Salem-garcia, et al.

Explore the fascinating neural mechanisms behind biased confidence in human reinforcement learning! Delve into the groundbreaking research by Chih-Chung Ting, Nahuel Salem-Garcia, Stefano Palminteri, Jan B. Engelmann, and Maël Lebreton, which reveals how the VMPFC network encodes global confidence signals amidst contextual biases using fMRI technology.

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Playback language: English
Abstract
This study investigated the neural and computational underpinnings of biased confidence in human reinforcement learning. Using fMRI and a reinforcement learning paradigm, the researchers found a functional dissociation between the dorsal prefrontal network (negatively correlated with condition-specific confidence) and the VMPFC network (positively encoding task-wide confidence incorporating valence-induced bias). VMPFC activity correlated better with confidence than with option values from reinforcement learning models. These findings suggest VMPFC plays a key role in building global feeling-of-confidence signals from latent decision variables and contextual biases.
Publisher
Nature Communications
Published On
Oct 28, 2023
Authors
Chih-Chung Ting, Nahuel Salem-Garcia, Stefano Palminteri, Jan B. Engelmann, Maël Lebreton
Tags
reinforcement learning
confidence
VMPFC network
fMRI
decision making
neural mechanisms
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