Modelling sensory attenuation as Bayesian causal inference across two datasets.

<h4>Introduction</h4>To interact with the environment, it is crucial to distinguish between sensory information that is externally generated and inputs that are self-generated. The sensory consequences of one's own movements tend to induce attenuated behavioral- and neural responses...

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Main Authors: Anna-Lena Eckert, Elena Fuehrer, Christina Schmitter, Benjamin Straube, Katja Fiehler, Dominik Endres
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2025-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0317924
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author Anna-Lena Eckert
Elena Fuehrer
Christina Schmitter
Benjamin Straube
Katja Fiehler
Dominik Endres
author_facet Anna-Lena Eckert
Elena Fuehrer
Christina Schmitter
Benjamin Straube
Katja Fiehler
Dominik Endres
author_sort Anna-Lena Eckert
collection DOAJ
description <h4>Introduction</h4>To interact with the environment, it is crucial to distinguish between sensory information that is externally generated and inputs that are self-generated. The sensory consequences of one's own movements tend to induce attenuated behavioral- and neural responses compared to externally generated inputs. We propose a computational model of sensory attenuation (SA) based on Bayesian Causal Inference, where SA occurs when an internal cause for sensory information is inferred.<h4>Methods</h4>Experiment 1investigates sensory attenuation during a stroking movement. Tactile stimuli on the stroking finger were suppressed, especially when they were predictable. Experiment 2 showed impaired delay detection between an arm movement and a video of the movement when participants were moving vs. when their arm was moved passively. We reconsider these results from the perspective of Bayesian Causal Inference (BCI). Using a hierarchical Markov Model (HMM) and variational message passing, we first qualitatively capture patterns of task behavior and sensory attenuation in simulations. Next, we identify participant-specific model parameters for both experiments using optimization.<h4>Results</h4>A sequential BCI model is well equipped to capture empirical patterns of SA across both datasets. Using participant-specific optimized model parameters, we find a good agreement between data and model predictions, with the model capturing both tactile detections in Experiment 1 and delay detections in Experiment 2.<h4>Discussion</h4>BCI is an appropriate framework to model sensory attenuation in humans. Computational models of sensory attenuation may help to bridge the gap across different sensory modalities and experimental paradigms and may contribute towards an improved description and understanding of deficits in specific patient groups (e.g. schizophrenia).
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spelling doaj-art-b8f5e4a159e2413eb4d66547ab3a4fcb2025-02-05T05:32:07ZengPublic Library of Science (PLoS)PLoS ONE1932-62032025-01-01201e031792410.1371/journal.pone.0317924Modelling sensory attenuation as Bayesian causal inference across two datasets.Anna-Lena EckertElena FuehrerChristina SchmitterBenjamin StraubeKatja FiehlerDominik Endres<h4>Introduction</h4>To interact with the environment, it is crucial to distinguish between sensory information that is externally generated and inputs that are self-generated. The sensory consequences of one's own movements tend to induce attenuated behavioral- and neural responses compared to externally generated inputs. We propose a computational model of sensory attenuation (SA) based on Bayesian Causal Inference, where SA occurs when an internal cause for sensory information is inferred.<h4>Methods</h4>Experiment 1investigates sensory attenuation during a stroking movement. Tactile stimuli on the stroking finger were suppressed, especially when they were predictable. Experiment 2 showed impaired delay detection between an arm movement and a video of the movement when participants were moving vs. when their arm was moved passively. We reconsider these results from the perspective of Bayesian Causal Inference (BCI). Using a hierarchical Markov Model (HMM) and variational message passing, we first qualitatively capture patterns of task behavior and sensory attenuation in simulations. Next, we identify participant-specific model parameters for both experiments using optimization.<h4>Results</h4>A sequential BCI model is well equipped to capture empirical patterns of SA across both datasets. Using participant-specific optimized model parameters, we find a good agreement between data and model predictions, with the model capturing both tactile detections in Experiment 1 and delay detections in Experiment 2.<h4>Discussion</h4>BCI is an appropriate framework to model sensory attenuation in humans. Computational models of sensory attenuation may help to bridge the gap across different sensory modalities and experimental paradigms and may contribute towards an improved description and understanding of deficits in specific patient groups (e.g. schizophrenia).https://doi.org/10.1371/journal.pone.0317924
spellingShingle Anna-Lena Eckert
Elena Fuehrer
Christina Schmitter
Benjamin Straube
Katja Fiehler
Dominik Endres
Modelling sensory attenuation as Bayesian causal inference across two datasets.
PLoS ONE
title Modelling sensory attenuation as Bayesian causal inference across two datasets.
title_full Modelling sensory attenuation as Bayesian causal inference across two datasets.
title_fullStr Modelling sensory attenuation as Bayesian causal inference across two datasets.
title_full_unstemmed Modelling sensory attenuation as Bayesian causal inference across two datasets.
title_short Modelling sensory attenuation as Bayesian causal inference across two datasets.
title_sort modelling sensory attenuation as bayesian causal inference across two datasets
url https://doi.org/10.1371/journal.pone.0317924
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