Calibration plots for multistate risk prediction models

Fuente: Wiley Open Access
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Auteurs principaux: Alexander Pate, Matthew Sperrin, Richard D. Riley, Niels Peek, Tjeerd Van Staa, Jamie C. Sergeant, Mamas A. Mamas, Gregory Y. H. Lip, Martin O'Flaherty, Michael Barrowman, Iain Buchan, Glen P. Martin
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Publié: Wiley 2024
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author Alexander Pate
Matthew Sperrin
Richard D. Riley
Niels Peek
Tjeerd Van Staa
Jamie C. Sergeant
Mamas A. Mamas
Gregory Y. H. Lip
Martin O'Flaherty
Michael Barrowman
Iain Buchan
Glen P. Martin
author_facet Alexander Pate
Matthew Sperrin
Richard D. Riley
Niels Peek
Tjeerd Van Staa
Jamie C. Sergeant
Mamas A. Mamas
Gregory Y. H. Lip
Martin O'Flaherty
Michael Barrowman
Iain Buchan
Glen P. Martin
Alexander Pate
Matthew Sperrin
Richard D. Riley
Niels Peek
Tjeerd Van Staa
Jamie C. Sergeant
Mamas A. Mamas
Gregory Y. H. Lip
Martin O'Flaherty
Michael Barrowman
Iain Buchan
Glen P. Martin
collection Wiley Open Access
contents Calibration plots for multistate risk prediction models Alexander Pate Matthew Sperrin Richard D. Riley Niels Peek Tjeerd Van Staa Jamie C. Sergeant Mamas A. Mamas Gregory Y. H. Lip Martin O'Flaherty Michael Barrowman Iain Buchan Glen P. Martin Statistics in Medicine IntroductionThere is currently no guidance on how to assess the calibration of multistate models used for risk prediction. We introduce several techniques that can be used to produce calibration plots for the transition probabilities of a multistate model, before assessing their performance in the presence of random and independent censoring through a simulation.MethodsWe studied pseudo‐values based on the Aalen‐Johansen estimator, binary logistic regression with inverse probability of censoring weights (BLR‐IPCW), and multinomial logistic regression with inverse probability of censoring weights (MLR‐IPCW). The MLR‐IPCW approach results in a calibration scatter plot, providing extra insight about the calibration. We simulated data with varying levels of censoring and evaluated the ability of each method to estimate the calibration curve for a set of predicted transition probabilities. We also developed and evaluated the calibration of a model predicting the incidence of cardiovascular disease, type 2 diabetes and chronic kidney disease among a cohort of patients derived from linked primary and secondary healthcare records.ResultsThe pseudo‐value, BLR‐IPCW, and MLR‐IPCW approaches give unbiased estimates of the calibration curves under random censoring. These methods remained predominately unbiased in the presence of independent censoring, even if the censoring mechanism was strongly associated with the outcome, with bias concentrated in low‐density regions of predicted transition probabilities.ConclusionsWe recommend implementing either the pseudo‐value or BLR‐IPCW approaches to produce a calibration curve, combined with the MLR‐IPCW approach to produce a calibration scatter plot. The methods have been incorporated into the “calibmsm” R package available on CRAN. 10.1002/sim.10094 http://creativecommons.org/licenses/by/4.0/
doi_str_mv 10.1002/sim.10094
format Artículo Open Access
id wiley_oa_10_1002_sim_10094
institution Wiley Open Access
license_str_mv http://creativecommons.org/licenses/by/4.0/
publishDate 2024
publisher Wiley
record_format wiley_oa
spellingShingle Calibration plots for multistate risk prediction models
Alexander Pate
Matthew Sperrin
Richard D. Riley
Niels Peek
Tjeerd Van Staa
Jamie C. Sergeant
Mamas A. Mamas
Gregory Y. H. Lip
Martin O'Flaherty
Michael Barrowman
Iain Buchan
Glen P. Martin
Statistics in Medicine
Calibration plots for multistate risk prediction models Alexander Pate Matthew Sperrin Richard D. Riley Niels Peek Tjeerd Van Staa Jamie C. Sergeant Mamas A. Mamas Gregory Y. H. Lip Martin O'Flaherty Michael Barrowman Iain Buchan Glen P. Martin Statistics in Medicine IntroductionThere is currently no guidance on how to assess the calibration of multistate models used for risk prediction. We introduce several techniques that can be used to produce calibration plots for the transition probabilities of a multistate model, before assessing their performance in the presence of random and independent censoring through a simulation.MethodsWe studied pseudo‐values based on the Aalen‐Johansen estimator, binary logistic regression with inverse probability of censoring weights (BLR‐IPCW), and multinomial logistic regression with inverse probability of censoring weights (MLR‐IPCW). The MLR‐IPCW approach results in a calibration scatter plot, providing extra insight about the calibration. We simulated data with varying levels of censoring and evaluated the ability of each method to estimate the calibration curve for a set of predicted transition probabilities. We also developed and evaluated the calibration of a model predicting the incidence of cardiovascular disease, type 2 diabetes and chronic kidney disease among a cohort of patients derived from linked primary and secondary healthcare records.ResultsThe pseudo‐value, BLR‐IPCW, and MLR‐IPCW approaches give unbiased estimates of the calibration curves under random censoring. These methods remained predominately unbiased in the presence of independent censoring, even if the censoring mechanism was strongly associated with the outcome, with bias concentrated in low‐density regions of predicted transition probabilities.ConclusionsWe recommend implementing either the pseudo‐value or BLR‐IPCW approaches to produce a calibration curve, combined with the MLR‐IPCW approach to produce a calibration scatter plot. The methods have been incorporated into the “calibmsm” R package available on CRAN. 10.1002/sim.10094 http://creativecommons.org/licenses/by/4.0/
title Calibration plots for multistate risk prediction models
topic Statistics in Medicine
url https://onlinelibrary.wiley.com/doi/10.1002/sim.10094