SubsidieMeesters logoSubsidieMeesters
ProjectenRegelingenAnalyses

Reading the mind’s eye: AI-inspired personalised brain models of mental imagery

This project aims to develop a personalized AI model of mental imagery by decoding neural activity and predicting image vividness, enhancing understanding and training of mental visualization.

Subsidie
€ 2.498.288
2024

Projectdetails

Introduction

How do we create mental images? Despite extensive research, we still miss an overarching mechanistic understanding of mental imagery: How do the various brain regions involved in mental imagery contribute to the unified percept in our mind's eye? Why do we experience imagery so differently, ranging from no to extremely vivid mental images?

Project Overview

In this project, we propose a novel perspective on mental imagery, viewing it as a personalised computational process that takes into account individual brain characteristics. The task of this computational process is to progressively transform abstract object descriptions (input) into sensory-like visual representations (output) through feedback connections in the brain’s processing hierarchy.

Methodology

To unravel the stages of this conversion process, we will employ advanced fMRI techniques to measure neural activity across the entire brain at an unparalleled level of detail. Using sophisticated analysis methods, we will decode topographic and semantic information about the content of mental images from activated brain areas.

Causal Investigation

To investigate the causal involvement of specific areas, we will transiently disrupt their activity using transcranial magnetic stimulation (TMS). Informed by the fMRI and TMS data, we will develop the first personalized AI-inspired neural network model of mental imagery.

Model Development

This model will simulate the emergence of sensory representations backwards through the processing hierarchy and predict the perceived vividness of generated images for each individual.

Application

By implementing the model into a Brain-Computer Interface, we will enable participants to see imagined objects on a screen during fMRI scanning. This opens up new applications, such as training the strength of mental imagery by providing neurofeedback based on predicted vividness.

Conclusion

This interdisciplinary project, at the intersection of psychology, neuroscience, and AI, will provide an integrative framework of the generation of subjective experiences in the mind's eye.

Financiële details & Tijdlijn

Financiële details

Subsidiebedrag€ 2.498.288
Totale projectbegroting€ 2.498.288

Tijdlijn

Startdatum1-9-2024
Einddatum31-8-2029
Subsidiejaar2024

Partners & Locaties

Projectpartners

  • UNIVERSITEIT MAASTRICHTpenvoerder

Land(en)

Netherlands

Inhoudsopgave

European Research Council

Financiering tot €10 miljoen voor baanbrekend frontier-onderzoek via ERC-grants (Starting, Consolidator, Advanced, Synergy, Proof of Concept).

Bekijk regeling

Vergelijkbare projecten binnen European Research Council

ProjectRegelingBedragJaarActie

Revealing the neural computations that distinguish imagination from reality

This project aims to investigate how the brain distinguishes between imagination and reality through sensory processing and cognitive control, using advanced neuroimaging and computational methods.

ERC Starting...€ 1.477.920
2025
Details

Personalized priors: How individual differences in internal models explain idiosyncrasies in natural vision

This project aims to uncover the contents of individual internal models of natural vision through creative drawing methods, enhancing understanding of scene perception and its neural underpinnings.

ERC Starting...€ 1.484.625
2023
Details

A theory and model of the neural transformations mediating human object perception

TRANSFORM aims to develop a predictive model and theory of neural transformations for object perception by integrating brain imaging, mathematical analysis, and computational modeling.

ERC Consolid...€ 2.291.855
2025
Details

Making sense of the senses: Causal Inference in a complex dynamic multisensory world

This project aims to uncover how the brain approximates causal inference in complex multisensory environments using interdisciplinary methods, potentially informing AI and addressing perceptual challenges in clinical populations.

ERC Advanced...€ 2.499.527
2024
Details

Using deep neural networks to understand functional specialization in the human visual cortex

This project aims to uncover the origins of functional specialization in the brain's visual pathway by integrating computational modeling, naturalistic behavior sampling, and neuroimaging.

ERC Starting...€ 1.494.750
2024
Details
ERC Starting...

Revealing the neural computations that distinguish imagination from reality

This project aims to investigate how the brain distinguishes between imagination and reality through sensory processing and cognitive control, using advanced neuroimaging and computational methods.

ERC Starting Grant
€ 1.477.920
2025
Details
ERC Starting...

Personalized priors: How individual differences in internal models explain idiosyncrasies in natural vision

This project aims to uncover the contents of individual internal models of natural vision through creative drawing methods, enhancing understanding of scene perception and its neural underpinnings.

ERC Starting Grant
€ 1.484.625
2023
Details
ERC Consolid...

A theory and model of the neural transformations mediating human object perception

TRANSFORM aims to develop a predictive model and theory of neural transformations for object perception by integrating brain imaging, mathematical analysis, and computational modeling.

ERC Consolidator Grant
€ 2.291.855
2025
Details
ERC Advanced...

Making sense of the senses: Causal Inference in a complex dynamic multisensory world

This project aims to uncover how the brain approximates causal inference in complex multisensory environments using interdisciplinary methods, potentially informing AI and addressing perceptual challenges in clinical populations.

ERC Advanced Grant
€ 2.499.527
2024
Details
ERC Starting...

Using deep neural networks to understand functional specialization in the human visual cortex

This project aims to uncover the origins of functional specialization in the brain's visual pathway by integrating computational modeling, naturalistic behavior sampling, and neuroimaging.

ERC Starting Grant
€ 1.494.750
2024
Details

SubsidieMeesters logoSubsidieMeesters

Vind en verken subsidieprojecten in Nederland en Europa.

Links

  • Projecten
  • Regelingen
  • Analyses

Suggesties

Heb je ideeën voor nieuwe features of verbeteringen?

Deel je suggestie
© 2025 SubsidieMeesters. Alle rechten voorbehouden.