Key result
A fusion model using resting-state HRV and GSR features achieved a 79% accuracy rate in separating patients with methamphetamine use disorder from healthy controls.
Why the study?
It remained unclear whether resting-state neurophysiological abnormalities without drug-cue induction could accurately separate patients with methamphetamine use disorder from healthy controls to aid mass screening.
Does a fusion model using resting-state EEG, HRV, and GSR data accurately detect Methamphetamine Use Disorder compared to healthy controls?
Case-Control (n=72)
Does a fusion model using resting-state EEG, HRV, and GSR data accurately detect Methamphetamine Use Disorder compared to healthy controls?
A fusion model using resting-state HRV and GSR features can accurately separate patients with methamphetamine use disorder from healthy controls, offering a potential tool for mass screening.
Supports HRV-GSR fusion for MUD detection; leaves open prospective validation before screening use.
Methamphetamine use disorder (MUD) is a substance use disorder. Because MUD has become more prevalent due to the COVID-19 pandemic, alternative ways to help the efficiency of mass screening of MUD are important. Previous studies used electroencephalogram (EEG), heart rate variability (HRV), and galvanic skin response (GSR) aberrations during the virtual reality (VR) induction of drug craving to accurately separate patients with MUD from the healthy controls. However, whether these abnormalities present without induction of drug-cue reactivity to enable separation between patients and healthy subjects remains unclear. Here, we propose a clinically comparable intelligent system using the fusion of 5-channel EEG, HRV, and GSR data during resting state to aid in detecting MUD. Forty-six patients with MUD and 26 healthy controls were recruited and machine learning methods were employed to systematically compare the classification results of different fusion models. The analytic results revealed that the fusion of HRV and GSR features leads to the most accurate separation rate of 79%. The use of EEG, HRV, and GSR features provides more robust information, leading to relatively similar and enhanced accuracy across different classifiers. In conclusion, we demonstrated that a clinically applicable intelligent system using resting-state EEG, ECG, and GSR features without the induction of drug cue reactivity enhances the detection of MUD. This system is easy to implement in the clinical setting and can save a lot of time on setting up and experimenting while maintaining excellent accuracy to assist in mass screening of MUD.
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Chen et al. (2024) conducted a case-control in Methamphetamine use disorder (n=72). Fusion model using resting-state EEG, HRV, and GSR features vs. Healthy controls was evaluated on Separation rate between patients with MUD and healthy controls. A fusion model using resting-state HRV and GSR features achieved a 79% accuracy rate in separating patients with methamphetamine use disorder from healthy controls.
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