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Multi-head attention-based masked sequence model for mapping functional brain networks
by
Qiang, Ning
, Zhang, Xin
, Wang, Zhenwei
, Ge, Bao
, He, Mengshen
, Ge, Enjie
, Hou, Xiangyu
, Kang, Zili
in
Attention
/ Brain mapping
/ Brain research
/ Data analysis
/ Datasets
/ Deep learning
/ Feature selection
/ functional brain networks
/ Functional magnetic resonance imaging
/ Generalized linear models
/ Magnetic resonance imaging
/ masked sequence modeling
/ Methods
/ multi-head attention
/ Neural networks
/ Neuroimaging
/ Neuroscience
/ Performance evaluation
/ task fMRI
/ Time series
2023
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Multi-head attention-based masked sequence model for mapping functional brain networks
by
Qiang, Ning
, Zhang, Xin
, Wang, Zhenwei
, Ge, Bao
, He, Mengshen
, Ge, Enjie
, Hou, Xiangyu
, Kang, Zili
in
Attention
/ Brain mapping
/ Brain research
/ Data analysis
/ Datasets
/ Deep learning
/ Feature selection
/ functional brain networks
/ Functional magnetic resonance imaging
/ Generalized linear models
/ Magnetic resonance imaging
/ masked sequence modeling
/ Methods
/ multi-head attention
/ Neural networks
/ Neuroimaging
/ Neuroscience
/ Performance evaluation
/ task fMRI
/ Time series
2023
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Do you wish to request the book?
Multi-head attention-based masked sequence model for mapping functional brain networks
by
Qiang, Ning
, Zhang, Xin
, Wang, Zhenwei
, Ge, Bao
, He, Mengshen
, Ge, Enjie
, Hou, Xiangyu
, Kang, Zili
in
Attention
/ Brain mapping
/ Brain research
/ Data analysis
/ Datasets
/ Deep learning
/ Feature selection
/ functional brain networks
/ Functional magnetic resonance imaging
/ Generalized linear models
/ Magnetic resonance imaging
/ masked sequence modeling
/ Methods
/ multi-head attention
/ Neural networks
/ Neuroimaging
/ Neuroscience
/ Performance evaluation
/ task fMRI
/ Time series
2023
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Multi-head attention-based masked sequence model for mapping functional brain networks
Journal Article
Multi-head attention-based masked sequence model for mapping functional brain networks
2023
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Overview
The investigation of functional brain networks (FBNs) using task-based functional magnetic resonance imaging (tfMRI) has gained significant attention in the field of neuroimaging. Despite the availability of several methods for constructing FBNs, including traditional methods like GLM and deep learning methods such as spatiotemporal self-attention mechanism (STAAE), these methods have design and training limitations. Specifically, they do not consider the intrinsic characteristics of fMRI data, such as the possibility that the same signal value at different time points could represent different brain states and meanings. Furthermore, they overlook prior knowledge, such as task designs, during training. This study aims to overcome these limitations and develop a more efficient model by drawing inspiration from techniques in the field of natural language processing (NLP). The proposed model, called the Multi-head Attention-based Masked Sequence Model (MAMSM), uses a multi-headed attention mechanism and mask training approach to learn different states corresponding to the same voxel values. Additionally, it combines cosine similarity and task design curves to construct a novel loss function. The MAMSM was applied to seven task state datasets from the Human Connectome Project (HCP) tfMRI dataset. Experimental results showed that the features acquired by the MAMSM model exhibit a Pearson correlation coefficient with the task design curves above 0.95 on average. Moreover, the model can extract more meaningful networks beyond the known task-related brain networks. The experimental results demonstrated that MAMSM has great potential in advancing the understanding of functional brain networks.
Publisher
Frontiers Research Foundation,Frontiers Media S.A
Subject
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