Key result
A deep learning model using routinely collected EHR data predicted the risk of childhood obesity at age 5 with an AUROC of 0.81, outperforming a baseline model based on last weight-for-length percentile.
Why the study?
Existing models predicting childhood obesity risk have practical limitations, including reliance on non-routine data, focus on single-age prediction, and inadequate validation or performance.
Does a deep learning model using routinely collected EHRs accurately predict the risk of childhood obesity in children aged 0 to 10?
Observational (n=36,191)
Yes
Does a deep learning model using routinely collected EHRs accurately predict the risk of childhood obesity in children aged 0 to 10?
Answers are grounded in this paper and cite their sources.
A deep learning model using routinely collected EHR data can reliably predict the risk of childhood obesity, facilitating early targeted prevention efforts.
Objective Identifying children at high risk of developing obesity can offer a critical time to change the course of the disease before it establishes. Numerous studies have tried to achieve this; but practical limitations remain, including (i) relying on data not present in routinely available pediatric data (like prenatal data), (ii) focusing on a single age prediction (hence, not tested across ages), and (iii) not achieving good results or adequately validating those. Methods A customized sequential deep learning model was built to predict the risk of childhood obesity, focusing especially on capturing the temporal patterns. The model was trained only on routinely collected EHRs, containing a list of features identified by a group of clinical experts, and sourced from 36,191 diverse children aged 0 to 10. The model was evaluated using extensive discrimination, calibration, and utility analysis; and was validated temporally, geographically, and across various subgroups. Results Our results are mostly better (and never worse) than all previous studies, including those that focus on single-age predictions or link EHRs to external data. Specifically, the model consistently achieved an area under the curve (AUROC) of above 0.8 (with most cases around 0.9) for predicting obesity within the next 3 years for children 2 to 7. The validation results show the robustness of the model. Furthermore, the most influential predictors of the model match important risk factors of obesity. Conclusions Our model is able to predict the risk of obesity for young children using only routinely collected EHR data, greatly facilitating its integration with the periodicity schedule. The model can serve as an objective screening tool to inform prevention efforts, especially by helping with very delicate interactions between providers and families in primary care settings.
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Gupta et al. (2024) conducted an observational in Childhood Obesity (n=36,191). Deep learning predictive model using routinely collected EHR data vs. Baseline model using last weight-for-length percentile or BMI percentile was evaluated on Prediction of obesity at age 5 using 0-2 years of EHR data (AUROC 0.81, 95% CI 0.80-0.82). A deep learning model using routinely collected EHR data predicted the risk of childhood obesity at age 5 with an AUROC of 0.81, outperforming a baseline model based on last weight-for-length percentile.
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