Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning

Background: High flow nasal cannula (HFNC) is commonly used as non-invasive respiratory support in critically ill children. There are limited data to inform consensus on optimal device parameters, determinants of successful patient response, and indications for escalation of support. Clinical scores...

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Autores principales: Joshua A. Krachman, Jessica A. Patricoski, Christopher T. Le, Jina Park, Ruijing Zhang, Kirby D. Gong, Indranuj Gangan, Raimond L. Winslow, Joseph L. Greenstein, James Fackler, Anthony A. Sochet, Jules P. Bergmann
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Publicado: Frontiers Media S.A. 2021
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spelling oai:doaj.org-article:936a3e40619c4397af3d8200c68880d52021-11-08T06:50:15ZPredicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning2296-236010.3389/fped.2021.734753https://doaj.org/article/936a3e40619c4397af3d8200c68880d52021-11-01T00:00:00Zhttps://www.frontiersin.org/articles/10.3389/fped.2021.734753/fullhttps://doaj.org/toc/2296-2360Background: High flow nasal cannula (HFNC) is commonly used as non-invasive respiratory support in critically ill children. There are limited data to inform consensus on optimal device parameters, determinants of successful patient response, and indications for escalation of support. Clinical scores, such as the respiratory rate-oxygenation (ROX) index, have been described as a means to predict HFNC non-response, but are limited to evaluating for escalations to invasive mechanical ventilation (MV). In the presence of apparent HFNC non-response, a clinician may choose to increase the HFNC flow rate to hypothetically prevent further respiratory deterioration, transition to an alternative non-invasive interface, or intubation for MV. To date, no models have been assessed to predict subsequent escalations of HFNC flow rates after HFNC initiation.Objective: To evaluate the abilities of tree-based machine learning algorithms to predict HFNC flow rate escalations.Methods: We performed a retrospective, cohort study assessing children admitted for acute respiratory failure under 24 months of age placed on HFNC in the Johns Hopkins Children's Center pediatric intensive care unit from January 2019 through January 2020. We excluded encounters with gaps in recorded clinical data, encounters in which MV treatment occurred prior to HFNC, and cases electively intubated in the operating room. The primary study outcome was discriminatory capacity of generated machine learning algorithms to predict HFNC flow rate escalations as compared to each other and ROX indices using area under the receiver operating characteristic (AUROC) analyses. In an exploratory fashion, model feature importance rankings were assessed by comparing Shapley values.Results: Our gradient boosting model with a time window of 8 h and lead time of 1 h before HFNC flow rate escalation achieved an AUROC with a 95% confidence interval of 0.810 ± 0.003. In comparison, the ROX index achieved an AUROC of 0.525 ± 0.000.Conclusion: In this single-center, retrospective cohort study assessing children under 24 months of age receiving HFNC for acute respiratory failure, tree-based machine learning models outperformed the ROX index in predicting subsequent flow rate escalations. Further validation studies are needed to ensure generalizability for bedside application.Joshua A. KrachmanJessica A. PatricoskiJessica A. PatricoskiChristopher T. LeJina ParkRuijing ZhangKirby D. GongIndranuj GanganRaimond L. WinslowJoseph L. GreensteinJames FacklerAnthony A. SochetAnthony A. SochetJules P. BergmannFrontiers Media S.A.articlehigh flow nasal cannulaflow rate escalationpediatric critical carenon-responsemachine learningacute respiratory failurePediatricsRJ1-570ENFrontiers in Pediatrics, Vol 9 (2021)
institution DOAJ
collection DOAJ
language EN
topic high flow nasal cannula
flow rate escalation
pediatric critical care
non-response
machine learning
acute respiratory failure
Pediatrics
RJ1-570
spellingShingle high flow nasal cannula
flow rate escalation
pediatric critical care
non-response
machine learning
acute respiratory failure
Pediatrics
RJ1-570
Joshua A. Krachman
Jessica A. Patricoski
Jessica A. Patricoski
Christopher T. Le
Jina Park
Ruijing Zhang
Kirby D. Gong
Indranuj Gangan
Raimond L. Winslow
Joseph L. Greenstein
James Fackler
Anthony A. Sochet
Anthony A. Sochet
Jules P. Bergmann
Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
description Background: High flow nasal cannula (HFNC) is commonly used as non-invasive respiratory support in critically ill children. There are limited data to inform consensus on optimal device parameters, determinants of successful patient response, and indications for escalation of support. Clinical scores, such as the respiratory rate-oxygenation (ROX) index, have been described as a means to predict HFNC non-response, but are limited to evaluating for escalations to invasive mechanical ventilation (MV). In the presence of apparent HFNC non-response, a clinician may choose to increase the HFNC flow rate to hypothetically prevent further respiratory deterioration, transition to an alternative non-invasive interface, or intubation for MV. To date, no models have been assessed to predict subsequent escalations of HFNC flow rates after HFNC initiation.Objective: To evaluate the abilities of tree-based machine learning algorithms to predict HFNC flow rate escalations.Methods: We performed a retrospective, cohort study assessing children admitted for acute respiratory failure under 24 months of age placed on HFNC in the Johns Hopkins Children's Center pediatric intensive care unit from January 2019 through January 2020. We excluded encounters with gaps in recorded clinical data, encounters in which MV treatment occurred prior to HFNC, and cases electively intubated in the operating room. The primary study outcome was discriminatory capacity of generated machine learning algorithms to predict HFNC flow rate escalations as compared to each other and ROX indices using area under the receiver operating characteristic (AUROC) analyses. In an exploratory fashion, model feature importance rankings were assessed by comparing Shapley values.Results: Our gradient boosting model with a time window of 8 h and lead time of 1 h before HFNC flow rate escalation achieved an AUROC with a 95% confidence interval of 0.810 ± 0.003. In comparison, the ROX index achieved an AUROC of 0.525 ± 0.000.Conclusion: In this single-center, retrospective cohort study assessing children under 24 months of age receiving HFNC for acute respiratory failure, tree-based machine learning models outperformed the ROX index in predicting subsequent flow rate escalations. Further validation studies are needed to ensure generalizability for bedside application.
format article
author Joshua A. Krachman
Jessica A. Patricoski
Jessica A. Patricoski
Christopher T. Le
Jina Park
Ruijing Zhang
Kirby D. Gong
Indranuj Gangan
Raimond L. Winslow
Joseph L. Greenstein
James Fackler
Anthony A. Sochet
Anthony A. Sochet
Jules P. Bergmann
author_facet Joshua A. Krachman
Jessica A. Patricoski
Jessica A. Patricoski
Christopher T. Le
Jina Park
Ruijing Zhang
Kirby D. Gong
Indranuj Gangan
Raimond L. Winslow
Joseph L. Greenstein
James Fackler
Anthony A. Sochet
Anthony A. Sochet
Jules P. Bergmann
author_sort Joshua A. Krachman
title Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
title_short Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
title_full Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
title_fullStr Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
title_full_unstemmed Predicting Flow Rate Escalation for Pediatric Patients on High Flow Nasal Cannula Using Machine Learning
title_sort predicting flow rate escalation for pediatric patients on high flow nasal cannula using machine learning
publisher Frontiers Media S.A.
publishDate 2021
url https://doaj.org/article/936a3e40619c4397af3d8200c68880d5
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