2019
DOI: 10.1097/ccm.0000000000003891
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A Machine Learning Algorithm to Predict Severe Sepsis and Septic Shock: Development, Implementation, and Impact on Clinical Practice*

Abstract: Objectives: Develop and implement a machine learning algorithm to predict severe sepsis and septic shock and evaluate the impact on clinical practice and patient outcomes. Design: Retrospective cohort for algorithm derivation and validation, pre-post impact evaluation. Setting: Tertiary teaching hospital system in Philadelphia, PA. Patients: All non-ICU admission… Show more

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Cited by 163 publications
(96 citation statements)
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“…28 Beyond the simple heuristics of rules-based scoring systems such as MEWS, SOFA, qSOFA and SIRS, several machine learning approaches have been retrospectively evaluated for the detection and prediction of incipient sepsis. 37 38 57-66 They include dynamic Bayesian networks, 60 support vector machines, 57 survival-analytical models (TREWScore, Artificial Intelligence Sepsis Expert), 61 62 smoothed disease severity score learning, 63 hierarchical switching linear dynamical systems, 64 autoregressive hidden Markov models, 65 free-text models 38 and random-forest models. 57 These tools contribute notably to the field of sepsis detection because they offer generalisability, are scalable, and can be updated as new information is acquired.…”
Section: Discussionmentioning
confidence: 99%
See 1 more Smart Citation
“…28 Beyond the simple heuristics of rules-based scoring systems such as MEWS, SOFA, qSOFA and SIRS, several machine learning approaches have been retrospectively evaluated for the detection and prediction of incipient sepsis. 37 38 57-66 They include dynamic Bayesian networks, 60 support vector machines, 57 survival-analytical models (TREWScore, Artificial Intelligence Sepsis Expert), 61 62 smoothed disease severity score learning, 63 hierarchical switching linear dynamical systems, 64 autoregressive hidden Markov models, 65 free-text models 38 and random-forest models. 57 These tools contribute notably to the field of sepsis detection because they offer generalisability, are scalable, and can be updated as new information is acquired.…”
Section: Discussionmentioning
confidence: 99%
“…37 38 57-66 They include dynamic Bayesian networks, 60 support vector machines, 57 survival-analytical models (TREWScore, Artificial Intelligence Sepsis Expert), 61 62 smoothed disease severity score learning, 63 hierarchical switching linear dynamical systems, 64 autoregressive hidden Markov models, 65 free-text models 38 and random-forest models. 57 These tools contribute notably to the field of sepsis detection because they offer generalisability, are scalable, and can be updated as new information is acquired. 58 However, many do not use information about measurement trends or correlations, 67 or do so ineffectively.…”
Section: Discussionmentioning
confidence: 99%
“…Interventional studies using traditional SIRS and SOFA alarm systems have not shown significant changes in clinical outcomes [48][49][50]. Only three interventional studies have been identified in this review, which were carried out in different clinical settings and show mixed results [31,32,51]. None of the studies, however, investigated a direct clinical action associated with the sepsis prediction, but left treatment decisions at the discretion of the clinician.…”
Section: Clinical Model Performancementioning
confidence: 99%
“…One clinical validation study in the ED showed the machine learning model outperformed manual scoring by nurses and the SIRS criteria when identifying severe sepsis and septic shock [28], the other study made no comparison [29]. The interventional studies included two pre-post implementation studies (in-hospital) [30,31] and one ICU randomized controlled trial [32]. All looked at mortality and hospital length of stay, but results are mixed as shown in Table 1.…”
Section: Study Characteristicsmentioning
confidence: 99%
“…Previous studies explored the potential for ML-based approaches to enhance ICU patient outcomes with sepsis [9]; however, the effectiveness and utility of these algorithms on clinical practice and patient outcomes, particularly outside of ICU settings, are yet to be established [10]. It is important to consider how sepsis prediction changes with the data available in these different settings, how patients need to be monitored across settings, as well as the multitude of factors that can influence the performance of sepsis prediction in diverse populations.…”
Section: Introductionmentioning
confidence: 99%