Explainable machine-learning predictions for complications after pediatric congenital heart surgery

Abstract The quality of treatment and prognosis after pediatric congenital heart surgery remains unsatisfactory. A reliable prediction model for postoperative complications of congenital heart surgery patients is essential to enable prompt initiation of therapy and improve the quality of prognosis....

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Autores principales: Xian Zeng, Yaoqin Hu, Liqi Shu, Jianhua Li, Huilong Duan, Qiang Shu, Haomin Li
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Lenguaje:EN
Publicado: Nature Portfolio 2021
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Acceso en línea:https://doaj.org/article/fd38e8681dfe4d99b77c9bb6b1928ada
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spelling oai:doaj.org-article:fd38e8681dfe4d99b77c9bb6b1928ada2021-12-02T18:53:09ZExplainable machine-learning predictions for complications after pediatric congenital heart surgery10.1038/s41598-021-96721-w2045-2322https://doaj.org/article/fd38e8681dfe4d99b77c9bb6b1928ada2021-08-01T00:00:00Zhttps://doi.org/10.1038/s41598-021-96721-whttps://doaj.org/toc/2045-2322Abstract The quality of treatment and prognosis after pediatric congenital heart surgery remains unsatisfactory. A reliable prediction model for postoperative complications of congenital heart surgery patients is essential to enable prompt initiation of therapy and improve the quality of prognosis. Here, we develop an interpretable machine-learning-based model that integrates patient demographics, surgery-specific features and intraoperative blood pressure data for accurately predicting complications after pediatric congenital heart surgery. We used blood pressure variability and the k-means algorithm combined with a smoothed formulation of dynamic time wrapping to extract features from time-series data. In addition, SHAP framework was used to provide explanations of the prediction. Our model achieved the best performance both in binary and multi-label classification compared with other consensus-based risk models. In addition, this explainable model explains why a prediction was made to help improve the clinical understanding of complication risk and generate actionable knowledge in practice. The combination of model performance and interpretability is easy for clinicians to trust and provide insight into how they should respond before the condition worsens after pediatric congenital heart surgery.Xian ZengYaoqin HuLiqi ShuJianhua LiHuilong DuanQiang ShuHaomin LiNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 11, Iss 1, Pp 1-11 (2021)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Xian Zeng
Yaoqin Hu
Liqi Shu
Jianhua Li
Huilong Duan
Qiang Shu
Haomin Li
Explainable machine-learning predictions for complications after pediatric congenital heart surgery
description Abstract The quality of treatment and prognosis after pediatric congenital heart surgery remains unsatisfactory. A reliable prediction model for postoperative complications of congenital heart surgery patients is essential to enable prompt initiation of therapy and improve the quality of prognosis. Here, we develop an interpretable machine-learning-based model that integrates patient demographics, surgery-specific features and intraoperative blood pressure data for accurately predicting complications after pediatric congenital heart surgery. We used blood pressure variability and the k-means algorithm combined with a smoothed formulation of dynamic time wrapping to extract features from time-series data. In addition, SHAP framework was used to provide explanations of the prediction. Our model achieved the best performance both in binary and multi-label classification compared with other consensus-based risk models. In addition, this explainable model explains why a prediction was made to help improve the clinical understanding of complication risk and generate actionable knowledge in practice. The combination of model performance and interpretability is easy for clinicians to trust and provide insight into how they should respond before the condition worsens after pediatric congenital heart surgery.
format article
author Xian Zeng
Yaoqin Hu
Liqi Shu
Jianhua Li
Huilong Duan
Qiang Shu
Haomin Li
author_facet Xian Zeng
Yaoqin Hu
Liqi Shu
Jianhua Li
Huilong Duan
Qiang Shu
Haomin Li
author_sort Xian Zeng
title Explainable machine-learning predictions for complications after pediatric congenital heart surgery
title_short Explainable machine-learning predictions for complications after pediatric congenital heart surgery
title_full Explainable machine-learning predictions for complications after pediatric congenital heart surgery
title_fullStr Explainable machine-learning predictions for complications after pediatric congenital heart surgery
title_full_unstemmed Explainable machine-learning predictions for complications after pediatric congenital heart surgery
title_sort explainable machine-learning predictions for complications after pediatric congenital heart surgery
publisher Nature Portfolio
publishDate 2021
url https://doaj.org/article/fd38e8681dfe4d99b77c9bb6b1928ada
work_keys_str_mv AT xianzeng explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT yaoqinhu explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT liqishu explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT jianhuali explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT huilongduan explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT qiangshu explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
AT haominli explainablemachinelearningpredictionsforcomplicationsafterpediatriccongenitalheartsurgery
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