Saved in:
Bibliographic Details
Main Authors: Dai, Yujie, Sullivan, Brian, Montout, Axel, Dillon, Amy, Waller, Chris, Acs, Peter, Denholm, Rachel, Williams, Philip, Hay, Alastair D, Santos-Rodriguez, Raul, Dowsey, Andrew
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2411.17645
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866909965719961600
author Dai, Yujie
Sullivan, Brian
Montout, Axel
Dillon, Amy
Waller, Chris
Acs, Peter
Denholm, Rachel
Williams, Philip
Hay, Alastair D
Santos-Rodriguez, Raul
Dowsey, Andrew
author_facet Dai, Yujie
Sullivan, Brian
Montout, Axel
Dillon, Amy
Waller, Chris
Acs, Peter
Denholm, Rachel
Williams, Philip
Hay, Alastair D
Santos-Rodriguez, Raul
Dowsey, Andrew
contents The use of machine learning and AI on electronic health records (EHRs) holds substantial potential for clinical insight. However, this approach faces challenges due to data heterogeneity, sparsity, temporal misalignment, and limited labeled outcomes. In this context, we leverage a linked EHR dataset of approximately one million de-identified individuals from Bristol, North Somerset, and South Gloucestershire, UK, to characterize urinary tract infections (UTIs). We implemented a data pre-processing and curation pipeline that transforms the raw EHR data into a structured format suitable for developing predictive models focused on data fairness, accountability and transparency. Given the limited availability and biases of ground truth UTI outcomes, we introduce a UTI risk estimation framework informed by clinical expertise to estimate UTI risk across individual patient timelines. Pairwise XGBoost models are trained using this framework to differentiate UTI risk categories with explainable AI techniques applied to identify key predictors and support interpretability. Our findings reveal differences in clinical and demographic predictors across risk groups. While this study highlights the potential of AI-driven insights to support UTI clinical decision-making, further investigation of patient sub-strata and extensive validation are needed to ensure robustness and applicability in clinical practice.
format Preprint
id arxiv_https___arxiv_org_abs_2411_17645
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Explainable AI for Classifying UTI Risk Groups Using a Real-World Linked EHR and Pathology Lab Dataset
Dai, Yujie
Sullivan, Brian
Montout, Axel
Dillon, Amy
Waller, Chris
Acs, Peter
Denholm, Rachel
Williams, Philip
Hay, Alastair D
Santos-Rodriguez, Raul
Dowsey, Andrew
Machine Learning
Artificial Intelligence
The use of machine learning and AI on electronic health records (EHRs) holds substantial potential for clinical insight. However, this approach faces challenges due to data heterogeneity, sparsity, temporal misalignment, and limited labeled outcomes. In this context, we leverage a linked EHR dataset of approximately one million de-identified individuals from Bristol, North Somerset, and South Gloucestershire, UK, to characterize urinary tract infections (UTIs). We implemented a data pre-processing and curation pipeline that transforms the raw EHR data into a structured format suitable for developing predictive models focused on data fairness, accountability and transparency. Given the limited availability and biases of ground truth UTI outcomes, we introduce a UTI risk estimation framework informed by clinical expertise to estimate UTI risk across individual patient timelines. Pairwise XGBoost models are trained using this framework to differentiate UTI risk categories with explainable AI techniques applied to identify key predictors and support interpretability. Our findings reveal differences in clinical and demographic predictors across risk groups. While this study highlights the potential of AI-driven insights to support UTI clinical decision-making, further investigation of patient sub-strata and extensive validation are needed to ensure robustness and applicability in clinical practice.
title Explainable AI for Classifying UTI Risk Groups Using a Real-World Linked EHR and Pathology Lab Dataset
topic Machine Learning
Artificial Intelligence
url https://arxiv.org/abs/2411.17645