BioMed Research International · 2020 · 70 citations · 11 references
ComputingBiostatisticsHealth InformaticsBiomedical Signal ProcessingClinical Decision SupportDiabetologyClassificationDiabetes MellitusDisease ModelingPredictive Health ModelingRisk PredictionDiabetes DiagnosisDiabetes ScreeningLogistic RegressionMachine Learning For Health MonitoringMachine Learning Prediction ModelsModel TestingPhotoplethysmogram Signal ProcessingTraining
In this research, the photoplethysmogram (PPG) waveform analysis is utilized to develop a logistic regression‐based predictive model for the classification of diabetes. The classifier has three predictors age, b / a , and SP indices in which they achieved an overall accuracy of 92.3% in the prediction of diabetes. In this study, a total of 587 subjects were enrolled. A total of 459 subjects were used for model training and development, while the rest of the 128 subjects were used for model testing and validation. The classifier was able to diagnose 63 patients correctly as diabetes while 27 subjects were wrongly classified as nondiabetes with an accuracy of 70%. Again, the model classified 479 subjects as nondiabetes correctly while it incorrectly classified 18 subjects as diabetes with an accuracy of 96.4%. Finally, the proposed model revealed an overall predictive accuracy of 92.3% which makes it a reliable surrogate measure for diabetes classification and prediction in clinical settings.
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Predicting Diabetes Mellitus With Machine Learning Techniques
Quan Zou, Kaiyang Qu, Yamei Luo et al. · Frontiers in Genetics · 2018 · 914 citations · Full text
Utility of the Photoplethysmogram in Circulatory Monitoring
Andrew Reisner, P. Shaltis, Devin B. McCombie et al. · Anesthesiology · 2008 · 364 citations · Full text
Non invasive physiological measurements
General Pharmacology The Vascular System · 1985 · 119 citations