TY - JOUR
T1 - Predictors for extubation failure in COVID-19 patients using a machine learning approach
AU - Dutch ICU Data Sharing Against COVID-19 Collaborators
AU - Fleuren, Lucas M
AU - Dam, Tariq A
AU - Tonutti, Michele
AU - de Bruin, Daan P
AU - Lalisang, Robbert C A
AU - Gommers, Diederik
AU - Cremer, Olaf L
AU - Bosman, Rob J
AU - Rigter, Sander
AU - Wils, Evert-Jan
AU - Frenzel, Tim
AU - Dongelmans, Dave A
AU - de Jong, Remko
AU - Peters, Marco
AU - Kamps, Marlijn J A
AU - Ramnarain, Dharmanand
AU - Nowitzky, Ralph
AU - Nooteboom, Fleur G C A
AU - de Ruijter, Wouter
AU - Urlings-Strop, Louise C
AU - Smit, Ellen G M
AU - Mehagnoul-Schipper, D Jannet
AU - Dormans, Tom
AU - de Jager, Cornelis P C
AU - Hendriks, Stefaan H A
AU - Achterberg, Sefanja
AU - Oostdijk, Evelien
AU - Reidinga, Auke C
AU - Festen-Spanjer, Barbara
AU - Brunnekreef, Gert B
AU - Cornet, Alexander D
AU - van den Tempel, Walter
AU - Boelens, Age D
AU - Koetsier, Peter
AU - Lens, Judith
AU - Faber, Harald J
AU - Karakus, A
AU - Entjes, Robert
AU - de Jong, Paul
AU - Rettig, Thijs C D
AU - Arbous, Sesmu
AU - Vonk, Sebastiaan J J
AU - Fornasa, Mattia
AU - Machado, Tomas
AU - Houwert, Taco
AU - Beudel, Martijn
AU - Girbes, Armand R J
AU - Hoogendoorn, Mark
AU - Thoral, Patrick J
AU - Elbers, Paul W G
AU - Cinà, G.
AU - Hovenkamp, Hidde
AU - Noorduijn Londono, Roberto
N1 - Publisher Copyright: © 2021. The Author(s).
PY - 2021/12/27
Y1 - 2021/12/27
N2 - INTRODUCTION: Determining the optimal timing for extubation can be challenging in the intensive care. In this study, we aim to identify predictors for extubation failure in critically ill patients with COVID-19. METHODS: We used highly granular data from 3464 adult critically ill COVID patients in the multicenter Dutch Data Warehouse, including demographics, clinical observations, medications, fluid balance, laboratory values, vital signs, and data from life support devices. All intubated patients with at least one extubation attempt were eligible for analysis. Transferred patients, patients admitted for less than 24 h, and patients still admitted at the time of data extraction were excluded. Potential predictors were selected by a team of intensive care physicians. The primary and secondary outcomes were extubation without reintubation or death within the next 7 days and within 48 h, respectively. We trained and validated multiple machine learning algorithms using fivefold nested cross-validation. Predictor importance was estimated using Shapley additive explanations, while cutoff values for the relative probability of failed extubation were estimated through partial dependence plots. RESULTS: A total of 883 patients were included in the model derivation. The reintubation rate was 13.4% within 48 h and 18.9% at day 7, with a mortality rate of 0.6% and 1.0% respectively. The grandient-boost model performed best (area under the curve of 0.70) and was used to calculate predictor importance. Ventilatory characteristics and settings were the most important predictors. More specifically, a controlled mode duration longer than 4 days, a last fraction of inspired oxygen higher than 35%, a mean tidal volume per kg ideal body weight above 8 ml/kg in the day before extubation, and a shorter duration in assisted mode (< 2 days) compared to their median values. Additionally, a higher C-reactive protein and leukocyte count, a lower thrombocyte count, a lower Glasgow coma scale and a lower body mass index compared to their medians were associated with extubation failure. CONCLUSION: The most important predictors for extubation failure in critically ill COVID-19 patients include ventilatory settings, inflammatory parameters, neurological status, and body mass index. These predictors should therefore be routinely captured in electronic health records.
AB - INTRODUCTION: Determining the optimal timing for extubation can be challenging in the intensive care. In this study, we aim to identify predictors for extubation failure in critically ill patients with COVID-19. METHODS: We used highly granular data from 3464 adult critically ill COVID patients in the multicenter Dutch Data Warehouse, including demographics, clinical observations, medications, fluid balance, laboratory values, vital signs, and data from life support devices. All intubated patients with at least one extubation attempt were eligible for analysis. Transferred patients, patients admitted for less than 24 h, and patients still admitted at the time of data extraction were excluded. Potential predictors were selected by a team of intensive care physicians. The primary and secondary outcomes were extubation without reintubation or death within the next 7 days and within 48 h, respectively. We trained and validated multiple machine learning algorithms using fivefold nested cross-validation. Predictor importance was estimated using Shapley additive explanations, while cutoff values for the relative probability of failed extubation were estimated through partial dependence plots. RESULTS: A total of 883 patients were included in the model derivation. The reintubation rate was 13.4% within 48 h and 18.9% at day 7, with a mortality rate of 0.6% and 1.0% respectively. The grandient-boost model performed best (area under the curve of 0.70) and was used to calculate predictor importance. Ventilatory characteristics and settings were the most important predictors. More specifically, a controlled mode duration longer than 4 days, a last fraction of inspired oxygen higher than 35%, a mean tidal volume per kg ideal body weight above 8 ml/kg in the day before extubation, and a shorter duration in assisted mode (< 2 days) compared to their median values. Additionally, a higher C-reactive protein and leukocyte count, a lower thrombocyte count, a lower Glasgow coma scale and a lower body mass index compared to their medians were associated with extubation failure. CONCLUSION: The most important predictors for extubation failure in critically ill COVID-19 patients include ventilatory settings, inflammatory parameters, neurological status, and body mass index. These predictors should therefore be routinely captured in electronic health records.
KW - Adult
KW - Airway Extubation
KW - COVID-19/therapy
KW - Critical Illness
KW - Extubation
KW - Extubation failure
KW - Humans
KW - Machine Learning
KW - Prediction
KW - Risk factors
KW - Treatment Failure
UR - http://www.scopus.com/inward/record.url?scp=85123036233&partnerID=8YFLogxK
UR - https://pure.uva.nl/ws/files/167673497/13054_2021_3864_MOESM1_ESM.docx
U2 - 10.1186/s13054-021-03864-3
DO - 10.1186/s13054-021-03864-3
M3 - Article
C2 - 34961537
SN - 1466-609X
VL - 25
SP - 448
JO - Critical care (London, England)
JF - Critical care (London, England)
IS - 1
M1 - 448
ER -