PLoS ONE · 2021 · 46 citations · 23 references
ComputingBiomedical InformaticsHealth InformaticsBayesian Data AnalysisEarly DetectionHealth Data AnalyticsBayesian Diagnostic ReasoningBayesian Model BuildingBayesian Reasoning In DiagnosisBayesian StatisticsPredictive Analytics For Population HealthPredictive Health ModelingBayesian Network AnalysisBayesian Network DiagnosisBayesian Risk AssessmentBayesian Risk PredictionElectronic Health Record DataPrimary Immunodeficiency DisordersPrior Model ProbabilitiesProbabilistic Diagnostic Modeling
BACKGROUND: Primary immunodeficiency diseases represent an expanding set of heterogeneous conditions which are difficult to recognize clinically. Diagnostic rates outside of the newborn period have not changed appreciably. This concern underscores a need for novel methods of disease detection. OBJECTIVE: We built a Bayesian network to provide real-time risk assessment about primary immunodeficiency and to facilitate prescriptive analytics for initiating the most appropriate diagnostic work up. Our goal is to improve diagnostic rates for primary immunodeficiency and shorten time to diagnosis. We aimed to use readily available health record data and a small training dataset to prove utility in diagnosing patients with relatively rare features. METHODS: We extracted data from the Texas Children's Hospital electronic health record on a large population of primary immunodeficiency patients (n = 1762) and appropriately-matched set of controls (n = 1698). From the cohorts, clinically relevant prior probabilities were calculated enabling construction of a Bayesian network probabilistic model(PI Prob). Our model was constructed with clinical-immunology domain expertise, trained on a balanced cohort of 100 cases-controls and validated on an unseen balanced cohort of 150 cases-controls. Performance was measured by area under the receiver operator characteristic curve (AUROC). We also compared our network performance to classic machine learning model performance on the same dataset. RESULTS: PI Prob was accurate in classifying immunodeficiency patients from controls (AUROC = 0.945; p<0.0001) at a risk threshold of ≥6%. Additionally, the model was 89% accurate for categorizing validation cohort members into appropriate International Union of Immunological Societies diagnostic categories. Our network outperformed 3 other machine learning models and provides superior transparency with a prescriptive output element. CONCLUSION: Artificial intelligence methods can classify risk for primary immunodeficiency and guide management. PI Prob enables accurate, objective decision making about risk and guides the user towards the appropriate diagnostic evaluation for patients with recurrent infections. Probabilistic models can be trained with small datasets underscoring their utility for rare disease detection given appropriate domain expertise for feature selection and network construction.
23
Stuart G. Tangye, Waleed Al–Herz, Aziz Bousfiha et al. · Journal of Clinical Immunology · 2020 · 1.2K citations · Full text
Life Sciences, Genetics, Immunology +16
Newborn Screening for Severe Combined Immunodeficiency in 11 Screening Programs in the United States
Antonia Kwan, Roshini S. Abraham, Robert J. Currier et al. · JAMA · 2014 · 673 citations
Medicine, Immunology, Pediatrics +17
Deep learning for lung cancer prognostication: A retrospective multi-cohort radiomics study
Ahmed Hosny, Chintan Parmar, Thibaud Coroller et al. · PLoS Medicine · 2018 · 586 citations · Full text