Evaluation of data processing pipelines on real-world electronic health records data for the purpose of measuring patient similarity

The ever-growing size, breadth, and availability of patient data allows for a wide variety of clinical features to serve as inputs for phenotype discovery using cluster analysis. Data of mixed types in particular are not straightforward to combine into a single feature vector, and techniques used to...

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Veröffentlicht in:PloS one 2023-06, Vol.18 (6), p.e0287264-e0287264
Hauptverfasser: Pikoula, Maria, Kallis, Constantinos, Madjiheurem, Sephora, Quint, Jennifer K, Bafadhel, Mona, Denaxas, Spiros
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container_title PloS one
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Kallis, Constantinos
Madjiheurem, Sephora
Quint, Jennifer K
Bafadhel, Mona
Denaxas, Spiros
description The ever-growing size, breadth, and availability of patient data allows for a wide variety of clinical features to serve as inputs for phenotype discovery using cluster analysis. Data of mixed types in particular are not straightforward to combine into a single feature vector, and techniques used to address this can be biased towards certain data types in ways that are not immediately obvious or intended. In this context, the process of constructing clinically meaningful patient representations from complex datasets has not been systematically evaluated. Our aim was to a) outline and b) implement an analytical framework to evaluate distinct methods of constructing patient representations from routine electronic health record data for the purpose of measuring patient similarity. We applied the analysis on a patient cohort diagnosed with chronic obstructive pulmonary disease. Using data from the CALIBER data resource, we extracted clinically relevant features for a cohort of patients diagnosed with chronic obstructive pulmonary disease. We used four different data processing pipelines to construct lower dimensional patient representations from which we calculated patient similarity scores. We described the resulting representations, ranked the influence of each individual feature on patient similarity and evaluated the effect of different pipelines on clustering outcomes. Experts evaluated the resulting representations by rating the clinical relevance of similar patient suggestions with regard to a reference patient. Each of the four pipelines resulted in similarity scores primarily driven by a unique set of features. It was demonstrated that data transformations according to each pipeline prior to clustering can result in a variation of clustering results of over 40%. The most appropriate pipeline was selected on the basis of feature ranking and clinical expertise. There was moderate agreement between clinicians as measured by Cohen's kappa coefficient. Data transformation has downstream and unforeseen consequences in cluster analysis. Rather than viewing this process as a black box, we have shown ways to quantitatively and qualitatively evaluate and select the appropriate preprocessing pipeline.
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subjects Algorithms
Care and treatment
Chronic obstructive pulmonary disease
Cluster Analysis
Clustering
Computer and Information Sciences
Consent
Data processing
Datasets
Diabetes
Diagnosis
Electronic data processing
Electronic Health Records
Electronic medical records
Electronic records
Evaluation
Health aspects
Humans
Informatics
Linear algebra
Lung diseases
Lung diseases, Obstructive
Management
Mathematical analysis
Measurement
Medical records
Medicine and Health Sciences
Obstructive lung disease
Patients
Phenotypes
Physical Sciences
Primary care
Principal components analysis
Pulmonary Disease, Chronic Obstructive
Rankings
Representations
Research and Analysis Methods
Similarity
Systematic review
title Evaluation of data processing pipelines on real-world electronic health records data for the purpose of measuring patient similarity
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