Multi-site Diagnostic Classification Of Schizophrenia Using 3D CNN On Aggregated Task-based fMRI Data
Vigneshwaran Shankaran, Bhaskaran V

TL;DR
This study employs a novel 3D CNN approach on aggregated multi-site task-based fMRI data to improve schizophrenia classification accuracy and explore brain connectivity differences.
Contribution
It introduces a temporal aggregation method for 4D fMRI data that outperforms existing techniques in multi-site schizophrenia classification.
Findings
Enhanced classification accuracy with the proposed method
Identification of key brain connectivity differences in schizophrenia
Effective use of multi-site fMRI data for diagnosis
Abstract
In spite of years of research, the mechanisms that underlie the development of schizophrenia, as well as its relapse, symptomatology, and treatment, continue to be a mystery. The absence of appropriate analytic tools to deal with the variable and complicated nature of schizophrenia may be one of the factors that contribute to the development of this disorder. Deep learning is a subfield of artificial intelligence that was inspired by the nervous system. In recent years, deep learning has made it easier to model and analyse complicated, high-dimensional, and nonlinear systems. Research on schizophrenia is one of the many areas of study that has been revolutionised as a result of the outstanding accuracy that deep learning algorithms have demonstrated in classification and prediction tasks. Deep learning has the potential to become a powerful tool for understanding the mechanisms that are…
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Taxonomy
TopicsFunctional Brain Connectivity Studies · Machine Learning in Healthcare · EEG and Brain-Computer Interfaces
