Accurate and efficient data-driven psychiatric assessment using machine learning

Accurate assessment of mental disorders and learning disabilities is essential for timely intervention. Machine learning and feature selection techniques have potential for improving the accuracy and efficiency of mental health assessments. However, limited research has explored the use of large transdiagnostic datasets, as well as the application of these techniques in developing quick, briefer, question-based assessments. This study applies machine learning and feature selection techniques to a large transdiagnostic dataset featuring a high number of assessment items, and to create a tool for construction of streamlined, efficient, and effective assessments from existing data. Using the Healthy Brain Network dataset (n = 4,136 at the time this study was conducted) containing over 1000 questionnaire items, a two-stage feature selection approach, with Elastic Net models, was used to identify optimal, parsimonious item subsets for assessing various disorders and symptoms, as well as custom test-based outcome measures for learning disabilities. The study then compared model performance to existing assessments through rigorous cross-validation. Machine learning models using parsimonious item subsets significantly outperformed traditional assessments (p = 0.004). Models for specific learning disorders achieved AUC values up to 0.855. Importantly, restricting analysis to non-proprietary assessment items did not significantly reduce performance. This study demonstrates the feasibility of using existing datasets to create efficient, effective assessment tools for mental disorders and learning disabilities. Our open-source, modular software architecture facilitates adaptation to diverse datasets, though external validation remains necessary before clinical implementation. The ability to achieve strong performance using only non-proprietary items supports the development of accessible assessment tools. Data-driven methods, such as machine learning and feature selection, have shown promise in improving the accuracy and efficiency of mental health assessment. Few studies have investigated these methods for the creation of learning disability assessments, and in application to transdiagnostic datasets consisting of a large number of assessments. Using the Healthy Brain Network dataset, we have built a tool for the creation of accurate and efficient machine-learning based assessments for common mental disorders and learning disabilities. The modular design of the tool ensures its easy application to other datasets, addressing a variety of clinical and research opportunities.

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Publication Details

Journal
BMC Medical Informatics and Decision Making
Published
2026-01-13
DOI
https://doi.org/10.1186/s12911-025-03329-5
Primary Topic
Mental Health via Writing
Type
article
Field-Weighted Citation Impact
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article

Accurate and efficient data-driven psychiatric assessment using machine learning

Maki Koyama, Ariel B. Lindner, Kseniia Konishcheva, Joshua T Vogelstein et al.
BMC Medical Informatics and Decision Making
Mental Health via Writing
article

Accurate and efficient data-driven psychiatric assessment using machine learning

Maki Koyama, Ariel B. Lindner, Kseniia Konishcheva, Joshua T Vogelstein, Michael P. Milham, Bennett L. Leventhal, Arno Klein, Sambit Panda
article en

Abstract

Accurate assessment of mental disorders and learning disabilities is essential for timely intervention. Machine learning and feature selection techniques have potential for improving the accuracy and efficiency of mental health assessments. However, limited research has explored the use of large transdiagnostic datasets, as well as the application of these techniques in developing quick, briefer, question-based assessments. This study applies machine learning and feature selection techniques to a large transdiagnostic dataset featuring a high number of assessment items, and to create a tool for construction of streamlined, efficient, and effective assessments from existing data. Using the Healthy Brain Network dataset (n = 4,136 at the time this study was conducted) containing over 1000 questionnaire items, a two-stage feature selection approach, with Elastic Net models, was used to identify optimal, parsimonious item subsets for assessing various disorders and symptoms, as well as custom test-based outcome measures for learning disabilities. The study then compared model performance to existing assessments through rigorous cross-validation. Machine learning models using parsimonious item subsets significantly outperformed traditional assessments (p = 0.004). Models for specific learning disorders achieved AUC values up to 0.855. Importantly, restricting analysis to non-proprietary assessment items did not significantly reduce performance. This study demonstrates the feasibility of using existing datasets to create efficient, effective assessment tools for mental disorders and learning disabilities. Our open-source, modular software architecture facilitates adaptation to diverse datasets, though external validation remains necessary before clinical implementation. The ability to achieve strong performance using only non-proprietary items supports the development of accessible assessment tools. Data-driven methods, such as machine learning and feature selection, have shown promise in improving the accuracy and efficiency of mental health assessment. Few studies have investigated these methods for the creation of learning disability assessments, and in application to transdiagnostic datasets consisting of a large number of assessments. Using the Healthy Brain Network dataset, we have built a tool for the creation of accurate and efficient machine-learning based assessments for common mental disorders and learning disabilities. The modular design of the tool ensures its easy application to other datasets, addressing a variety of clinical and research opportunities.

BMC Medical Informatics and Decision MakingVol. 26(1)
Johns Hopkins University (US), Université Paris Cité (FR), University of Illinois Chicago (US), University of Chicago (US), Sorbonne Paris Cité (FR), Child Mind Institute (US)
Quality Education
Openalex Percentile: Top 92%
Mental Health via Writing
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