Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study

Abstract Background Gestational diabetes (GDM) is prevalent and benefits from timely and effective treatment, given the short window to impact glycemic control. Clinicians face major barriers to choosing effectively among treatment modalities [medical nutrition therapy (MNT) with or without pharmaco...

Full description

Bibliographic Details
Main Authors: Lauren D. Liao, Assiamira Ferrara, Mara B. Greenberg, Amanda L. Ngo, Juanran Feng, Zhenhua Zhang, Patrick T. Bradshaw, Alan E. Hubbard, Yeyi Zhu
Format: Article
Language:English
Published: BMC 2022-09-01
Series:BMC Medicine
Subjects:
Online Access:https://doi.org/10.1186/s12916-022-02499-7
_version_ 1811267374625587200
author Lauren D. Liao
Assiamira Ferrara
Mara B. Greenberg
Amanda L. Ngo
Juanran Feng
Zhenhua Zhang
Patrick T. Bradshaw
Alan E. Hubbard
Yeyi Zhu
author_facet Lauren D. Liao
Assiamira Ferrara
Mara B. Greenberg
Amanda L. Ngo
Juanran Feng
Zhenhua Zhang
Patrick T. Bradshaw
Alan E. Hubbard
Yeyi Zhu
author_sort Lauren D. Liao
collection DOAJ
description Abstract Background Gestational diabetes (GDM) is prevalent and benefits from timely and effective treatment, given the short window to impact glycemic control. Clinicians face major barriers to choosing effectively among treatment modalities [medical nutrition therapy (MNT) with or without pharmacologic treatment (antidiabetic oral agents and/or insulin)]. We investigated whether clinical data at varied stages of pregnancy can predict GDM treatment modality. Methods Among a population-based cohort of 30,474 pregnancies with GDM delivered at Kaiser Permanente Northern California in 2007–2017, we selected those in 2007–2016 as the discovery set and 2017 as the temporal/future validation set. Potential predictors were extracted from electronic health records at different timepoints (levels 1–4): (1) 1-year preconception to the last menstrual period, (2) the last menstrual period to GDM diagnosis, (3) at GDM diagnosis, and (4) 1 week after GDM diagnosis. We compared transparent and ensemble machine learning prediction methods, including least absolute shrinkage and selection operator (LASSO) regression and super learner, containing classification and regression tree, LASSO regression, random forest, and extreme gradient boosting algorithms, to predict risks for pharmacologic treatment beyond MNT. Results The super learner using levels 1–4 predictors had higher predictability [tenfold cross-validated C-statistic in discovery/validation set: 0.934 (95% CI: 0.931–0.936)/0.815 (0.800–0.829)], compared to levels 1, 1–2, and 1–3 (discovery/validation set C-statistic: 0.683–0.869/0.634–0.754). A simpler, more interpretable model, including timing of GDM diagnosis, diagnostic fasting glucose value, and the status and frequency of glycemic control at fasting during one-week post diagnosis, was developed using tenfold cross-validated logistic regression based on super learner-selected predictors. This model compared to the super learner had only a modest reduction in predictability [discovery/validation set C-statistic: 0.825 (0.820–0.830)/0.798 (95% CI: 0.783–0.813)]. Conclusions Clinical data demonstrated reasonably high predictability for GDM treatment modality at the time of GDM diagnosis and high predictability at 1-week post GDM diagnosis. These population-based, clinically oriented models may support algorithm-based risk-stratification for treatment modality, inform timely treatment, and catalyze more effective management of GDM.
first_indexed 2024-04-12T21:01:18Z
format Article
id doaj.art-6b3772ccdb2147bab910d58532331352
institution Directory Open Access Journal
issn 1741-7015
language English
last_indexed 2024-04-12T21:01:18Z
publishDate 2022-09-01
publisher BMC
record_format Article
series BMC Medicine
spelling doaj.art-6b3772ccdb2147bab910d585323313522022-12-22T03:16:50ZengBMCBMC Medicine1741-70152022-09-0120111310.1186/s12916-022-02499-7Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort studyLauren D. Liao0Assiamira Ferrara1Mara B. Greenberg2Amanda L. Ngo3Juanran Feng4Zhenhua Zhang5Patrick T. Bradshaw6Alan E. Hubbard7Yeyi Zhu8Division of Biostatistics, School of Public Health, University of CaliforniaDivision of Research, Kaiser Permanente Northern CaliforniaDepartment of Obstetrics and Gynecology, Kaiser Permanente Northern CaliforniaDivision of Research, Kaiser Permanente Northern CaliforniaDivision of Research, Kaiser Permanente Northern CaliforniaDepartment of Civil and Environmental Engineering, Stanford UniversityDivision of Epidemiology, School of Public Health, University of CaliforniaDivision of Biostatistics, School of Public Health, University of CaliforniaDivision of Research, Kaiser Permanente Northern CaliforniaAbstract Background Gestational diabetes (GDM) is prevalent and benefits from timely and effective treatment, given the short window to impact glycemic control. Clinicians face major barriers to choosing effectively among treatment modalities [medical nutrition therapy (MNT) with or without pharmacologic treatment (antidiabetic oral agents and/or insulin)]. We investigated whether clinical data at varied stages of pregnancy can predict GDM treatment modality. Methods Among a population-based cohort of 30,474 pregnancies with GDM delivered at Kaiser Permanente Northern California in 2007–2017, we selected those in 2007–2016 as the discovery set and 2017 as the temporal/future validation set. Potential predictors were extracted from electronic health records at different timepoints (levels 1–4): (1) 1-year preconception to the last menstrual period, (2) the last menstrual period to GDM diagnosis, (3) at GDM diagnosis, and (4) 1 week after GDM diagnosis. We compared transparent and ensemble machine learning prediction methods, including least absolute shrinkage and selection operator (LASSO) regression and super learner, containing classification and regression tree, LASSO regression, random forest, and extreme gradient boosting algorithms, to predict risks for pharmacologic treatment beyond MNT. Results The super learner using levels 1–4 predictors had higher predictability [tenfold cross-validated C-statistic in discovery/validation set: 0.934 (95% CI: 0.931–0.936)/0.815 (0.800–0.829)], compared to levels 1, 1–2, and 1–3 (discovery/validation set C-statistic: 0.683–0.869/0.634–0.754). A simpler, more interpretable model, including timing of GDM diagnosis, diagnostic fasting glucose value, and the status and frequency of glycemic control at fasting during one-week post diagnosis, was developed using tenfold cross-validated logistic regression based on super learner-selected predictors. This model compared to the super learner had only a modest reduction in predictability [discovery/validation set C-statistic: 0.825 (0.820–0.830)/0.798 (95% CI: 0.783–0.813)]. Conclusions Clinical data demonstrated reasonably high predictability for GDM treatment modality at the time of GDM diagnosis and high predictability at 1-week post GDM diagnosis. These population-based, clinically oriented models may support algorithm-based risk-stratification for treatment modality, inform timely treatment, and catalyze more effective management of GDM.https://doi.org/10.1186/s12916-022-02499-7Gestational diabetesMachine learningPharmacologic treatmentPredictionPregnancyRisk stratification
spellingShingle Lauren D. Liao
Assiamira Ferrara
Mara B. Greenberg
Amanda L. Ngo
Juanran Feng
Zhenhua Zhang
Patrick T. Bradshaw
Alan E. Hubbard
Yeyi Zhu
Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
BMC Medicine
Gestational diabetes
Machine learning
Pharmacologic treatment
Prediction
Pregnancy
Risk stratification
title Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
title_full Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
title_fullStr Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
title_full_unstemmed Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
title_short Development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning: a population-based cohort study
title_sort development and validation of prediction models for gestational diabetes treatment modality using supervised machine learning a population based cohort study
topic Gestational diabetes
Machine learning
Pharmacologic treatment
Prediction
Pregnancy
Risk stratification
url https://doi.org/10.1186/s12916-022-02499-7
work_keys_str_mv AT laurendliao developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT assiamiraferrara developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT marabgreenberg developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT amandalngo developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT juanranfeng developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT zhenhuazhang developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT patricktbradshaw developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT alanehubbard developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy
AT yeyizhu developmentandvalidationofpredictionmodelsforgestationaldiabetestreatmentmodalityusingsupervisedmachinelearningapopulationbasedcohortstudy