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Machine Learning on Early Diagnosis of Depression

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초록

To review the recent progress of machine learning for the early diagnosis of depression (major depressive disorder). The source of data was 32 original studies in the Web of Science. The search terms were “depression” (title) and “random forest” (abstract). The eligibility criteria were the dependent variable of depression, the interventions of machine learning (the decision tree, the naïve Bayesian, the random forest, the support vector machine and/or the artificial neural network), the outcomes of accuracy and/or the area under the receiver operating characteristic curve (AUC) for the early diagnosis of depression, the publication year of 2000 or later, the publication language of English and the publication journal of SCIE/SSCI. Different machine learning methods would be appropriate for different types of data for the early diagnosis of depression, e.g., logistic regression, the random forest, the support vector machine and/or the artificial neural network in the case of numeric data, the random forest in the case of genomic data. Their performance measures reported varied within 60.1–100.0 for accuracy and 64.0–96.0 for the AUC. Machine learning provides an effective, non-invasive decision support system for early diagnosis of depression

Abstract

To review the recent progress of machine learning for the early diagnosis of depression (major depressive disorder). The source of data was 32 original studies in the Web of Science. The search terms were “depression” (title) and “random forest” (abstract). The eligibility criteria were the dependent variable of depression, the interventions of machine learning (the decision tree, the naïve Bayesian, the random forest, the support vector machine and/or the artificial neural network), the outcomes of accuracy and/or the area under the receiver operating characteristic curve (AUC) for the early diagnosis of depression, the publication year of 2000 or later, the publication language of English and the publication journal of SCIE/SSCI. Different machine learning methods would be appropriate for different types of data for the early diagnosis of depression, e.g., logistic regression, the random forest, the support vector machine and/or the artificial neural network in the case of numeric data, the random forest in the case of genomic data. Their performance measures reported varied within 60.1–100.0 for accuracy and 64.0–96.0 for the AUC. Machine learning provides an effective, non-invasive decision support system for early diagnosis of depression

참고문헌 (57)

  1. "Depression (major depressive disorder)"[URL]
  2. Depression and other common mental disorders: global health estimates, "World Health Organization", World Health Organization, ~ (2017)
  3. Liu Q, "Changes in the global burden of depression from 1990 to 2017: findings from the global burden of disease study", J Psychiatr Res, 126, pp.134~140 (2020)
  4. Findings from the Global Burden of Disease Study 2017, "Institute for Health Metrics and Evaluation", Institute for Health Metrics and Evaluation, ~ (2018)
  5. Lee KS, "Burden of disease in Korea during 2000-10", J Public Health (Oxf), 36, pp.225~234 (2014)
  6. Patel V, "Addressing the burden of mental, neurological, and substance use disorders: key messages from Disease Control Priorities, 3rd edition", Lancet, 387, pp.1672~1685 (2016)
  7. Won E, "Imaging genetics studies on monoaminergic genes in major depressive disorder", Prog Neuropsychopharmacol Biol Psychiatry, 64, pp.311~319 (2016)
  8. Lee KS, "Application of artificial intelligence in early diagnosis of spontaneous preterm labor and birth", Diagnostics (Basel), 10, pp.733~ (2020)
  9. Park J, "ECG-signal multi-classification model based on squeeze-and-excitation residual neural networks", Appl Sci, 10, pp.6495~ (2020)
  10. Goodwin LK, "Data mining methods find demographic predictors of preterm birth", Nurs Res, 50, pp.340~345 (2001)
  11. Koivu A, "Predicting risk of stillbirth and preterm pregnancies with machine learning", Health Inf Sci Syst, 8, pp.14~ (2020)
  12. Fergus P, "Prediction of preterm deliveries from EHG signals using machine learning", PLoS One, 8, pp.e77154~ (2013)
  13. Gao C, "Deep learning predicts extreme preterm birth from electronic health records", J Biomed Inform, 100, pp.103334~ (2019)
  14. "Interpretable convolutional neural networks for preterm birth classification" (2019)[URL]
  15. Lee Kwang-Sig, "Association of Gastroesophageal Reflux Disease with Preterm Birth: Machine Learning Analysis", Journal of Korean Medical Science, 36(43), pp.1~10 (2021), 대한의학회[DOI]
  16. Zhu SL, "Application of machine learning in the diagnosis of gastric cancer based on noninvasive characteristics", PLoS One, 15, pp.e0244869~ (2020)
  17. DCFPyL PET radiomics for risk stratification in primary prostate cancer, "Eur J Nucl Med Mol Imaging", 2021, 340~349
  18. Park YR, "Comparison of machine and deep learning for the classification of cervical cancer based on cervicography images", Sci Rep, 11, pp.16143~ (2021)
  19. Lee KS, "Usefulness of artificial intelligence for predicting recurrence following surgery for pancreatic cancer: retrospective cohort study", Int J Surg, 93, pp.106050~ (2021)
  20. Lee KS, "Social determinants of association among diabetes mellitus, visual impairment and hearing loss in a middle-aged or old population: artificial-neural-network analysis of the Korean Longitudinal Study of Aging (2014–2016)", Geriatrics (Basel), 4, pp.30~ (2019)
  21. Lee KS, "Social determinants of the association among cerebrovascular disease, hearing loss and cognitive impairment in a middleaged or older population: recurrent neural network analysis of the Korean Longitudinal Study of Aging (2014-2016)", Geriatr Gerontol Int, 19, pp.711~716 (2019)
  22. Lee Kwang-Sig, "Artificial Intelligence Approaches to Social Determinants of Cognitive Impairment and Its Associated Conditions", Dementia and Neurocognitive Disorders(대한치매학회지), 19(3), pp.114~123 (2020), 대한치매학회[DOI]
  23. 류기진, "Machine Learning Approaches to Identify Factors Associated with Women's Vasomotor Symptoms Using General Hospital Data", Journal of Korean Medical Science, 36(17), pp.1~9 (2021), 대한의학회[DOI]
  24. Lee KS, "Automated detection of TMJ osteoarthritis based on artificial intelligence", J Dent Res, 99, pp.1363~1367 (2020)
  25. Lee KS, "Risk factor assessments of temporomandibular disorders via machine learning", Sci Rep, 11, pp.19802~ (2021)
  26. Lu S, "Semi-supervised random forest regression model based on co-training and grouping with information entropy for evaluation of depression symptoms severity", Math Biosci Eng, 18, pp.4586~4602 (2021)
  27. Sawangarreerak S, "Random forest with sampling techniques for handling imbalanced prediction of university student depression", Information, 11, pp.519~ (2020)
  28. Shin D, "Machine learning-based predictive modeling of postpartum depression", J Clin Med, 9, pp.2899~ (2020)
  29. Pearson R, "A machine learning ensemble to predict treatment outcomes following an Internet intervention for depression", Psychol Med, 49, pp.2330~2341 (2019)
  30. Wolfe F, "Predicting depression in rheumatoid arthritis: the signal importance of pain extent and fatigue, and comorbidity", Arthritis Rheum, 61, pp.667~673 (2009)
  31. Hu S, "Gut microbiota changes in patients with bipolar depression", Adv Sci (Weinh), 6, pp.1900752~ (2019)
  32. Zhang W, "Machine learning models for the prediction of postpartum depression: application and comparison based on a cohort study", JMIR Med Inform, 8, pp.e15516~ (2020)
  33. Bhak Y, "Depression and suicide risk prediction models using blood-derived multi-omics data", Transl Psychiatry, 9, pp.262~ (2019)
  34. Fang J, "Depression prevalence in postgraduate students and its association with gait abnormality", IEEE Access, 7, pp.174425~174437 (2019)
  35. Zhang X, "Aberrant functional connectivity and activity in Parkinson’s disease and comorbidity with depression based on radiomic analysis", Brain Behav, 11, pp.e02103~ (2021)
  36. Sau A, "Predicting anxiety and depression in elderly patients using machine learning technology", Healthc Technol Lett, 4, pp.238~243 (2017)
  37. Cacheda F, "Early detection of depression:social network analysis and random forest techniques", J Med Internet Res, 21, pp.e12554~ (2019)
  38. Lin H, "Functional connectivity markers of depression in advanced Parkinson’s disease", Neuroimage Clin, 25, pp.102130~ (2020)
  39. Razavi R, "Depression screening using mobile phone usage metadata: a machine learning approach", J Am Med Inform Assoc, 27, pp.522~530 (2020)
  40. Čukić M, "The successful discrimination of depression from EEG could be attributed to proper feature extraction and not to a particular classification method", Cogn Neurodyn, 14, pp.443~455 (2020)
  41. Foster S, "Estimating patient-specific treatment advantages in the ‘Treatment for Adolescents with Depression Study’", J Psychiatr Res, 112, pp.61~70 (2019)
  42. Tennenhouse LG, "Machine-learning models for depression and anxiety in individuals with immune-mediated inflammatory disease", J Psychosom Res, 134, pp.110126~ (2020)
  43. Kanders SH, "A pharmacogenetic risk score for the evaluation of major depression severity under treatment with antidepressants", Drug Dev Res, 81, pp.102~113 (2020)
  44. Elovanio M, "General Health Questionnaire (GHQ-12), Beck Depression Inventory (BDI-6), and Mental Health Index (MHI-5): psychometric and predictive properties in a Finnish population-based sample", Psychiatry Res, 289, pp.112973~ (2020)
  45. Richter T, "Machine learning-based diagnosis support system for differentiating between clinical anxiety and depression disorders", J Psychiatr Res, 141, pp.199~205 (2021)
  46. Zanella-Calzada LA, "Feature extraction in motor activity signal: towards a depression episodes detection in unipolar and bipolar patients", Diagnostics (Basel), 9, pp.8~ (2019)
  47. Manelis A, "Prefrontal cortical activation during working memory task anticipation contributes to discrimination between bipolar and unipolar depression", Neuropsychopharmacology, 45, pp.956~963 (2020)
  48. Wade BSC, "Inter and intra-hemispheric structural imaging markers predict depression relapse after electroconvulsive therapy: a multisite study", Transl Psychiatry, 7, pp.1270~ (2017)
  49. Gibbons RD, "The computerized adaptive diagnostic test for major depressive disorder (CAD-MDD): a screening tool for depression", J Clin Psychiatry, 74, pp.669~674 (2013)
  50. Hu C, "Constructing a predictive model of depression in chemotherapy patients with non-Hodgkin’s lymphoma to improve medical staffs’ psychiatric care", Biomed Res Int, 2021, pp.9201235~ (2021)
  51. Shimizu Y, "Toward probabilistic diagnosis and understanding of depression based on functional MRI data analysis with logistic group LASSO", PLoS One, 10, pp.e0123524~ (2015)
  52. Wahle F, "Mobile sensing and support for people with depression: a pilot trial in the wild", JMIR Mhealth Uhealth, 4, pp.e111~ (2016)
  53. Li W, "Simple action for depression detection: using kinect-recorded human kinematic skeletal data", BMC Psychiatry, 21, pp.205~ (2021)
  54. Park Y, "Comparison of methods to reduce bias from clinical prediction models of postpartum depression", JAMA Netw Open, 4, pp.e213909~ (2021)
  55. Kim H, "Depression prediction by using ecological momentary assessment, actiwatch data, and machine learning: observational study on older adults living alone", JMIR Mhealth Uhealth, 7, pp.e14149~ (2019)
  56. Kasthurirathne SN, "Identification of patients in need of advanced care for depression using data extracted from a statewide health information exchange:a machine learning approach", J Med Internet Res, 21, pp.e13809~ (2019)
  57. Wallert J, "Predicting adherence to internet-delivered psychotherapy for symptoms of depression and anxiety after myocardial infarction: machine learning insights from the U-CARE heart randomized controlled trial", J Med Internet Res, 20, pp.e10754~ (2018)

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