Key result
Deep learning model successfully distinguishes methamphetamine use disorder from healthy controls on resting-state fMRI.
Why the study?
Failure to manage emotional withdrawal symptoms can exacerbate relapse to methamphetamine use, making it crucial to understand the neuro-mechanisms underlying methamphetamine overuse and associated emotional withdrawal symptoms.
Does a spatio-temporal graph convolutional network utilizing gyro-sulcal subdivisions accurately distinguish resting-state fMRI data of abstinent males with methamphetamine use disorder from healthy controls?
Case-Control (n=96)
Does a spatio-temporal graph convolutional network utilizing gyro-sulcal subdivisions accurately distinguish resting-state fMRI data of abstinent males with methamphetamine use disorder from healthy controls?
A novel deep learning model utilizing gyro-sulcal subdivisions can accurately classify methamphetamine use disorder from resting-state fMRI and identify neural correlates of emotional withdrawal symptoms.
Hypothesis-generating for DL-based fMRI classification in methamphetamine use disorder; warrants prospective validation before clinical consideration.
Failure to manage emotional withdrawal symptoms can exacerbate relapse to methamphetamine use. Understanding the neuro-mechanisms underlying methamphetamine overuse and the associated emotional withdrawal symptoms is crucial for developing effective clinical strategies. This study aimed to investigate the distinct functional contributions of fine-scale gyro-sulcal signaling in the psychopathology of patients with methamphetamine use disorder and its associations with emotional symptoms. We recruited 48 male abstinent methamphetamine use disorders and 48 age- and gender-matched healthy controls, obtaining their resting-state functional magnetic resonance imaging data along with scores on anxiety and depressive symptoms. The proposed deep learning model, a spatio-temporal graph convolutional network utilizing gyro-sulcal subdivisions, achieved the highest average classification accuracy in distinguishing resting-state functional magnetic resonance imaging data of methamphetamine use disorders from healthy controls. Within this model, nodes in the lateral orbitofrontal cortex, and the habitual and executive control networks, contributed most significantly to the classification. Additionally, emotional symptom scores were negatively correlated with the sum of negative functional connectivity in the right caudal anterior cingulate sulcus and the functional connectivity between the left putamen and pallidum in methamphetamine use disorders. These findings provide novel insights into the differential functions of gyral and sulcal regions, enhancing our understanding of the neuro-mechanisms underlying methamphetamine use disorders.
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Jiang et al. (2025) conducted a case-control in Methamphetamine use disorder (n=96). Methamphetamine use disorder vs. Healthy controls was evaluated on Classification accuracy distinguishing methamphetamine use disorders from healthy controls. A deep learning spatio-temporal graph convolutional network successfully distinguished resting-state fMRI data of males with methamphetamine use disorder from healthy controls.
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