| Literature DB >> 33718920 |
Benjamin Shickel1,2, Anis Davoudi2,3, Tezcan Ozrazgat-Baslanti2,4, Matthew Ruppert2,4, Azra Bihorac2,4, Parisa Rashidi1,2,3.
Abstract
Accurate prediction and monitoring of patient health in the intensive care unit can inform shared decisions regarding appropriateness of care delivery, risk-reduction strategies, and intensive care resource use. Traditionally, algorithmic solutions for patient outcome prediction rely solely on data available from electronic health records (EHR). In this pilot study, we explore the benefits of augmenting existing EHR data with novel measurements from wrist-worn activity sensors as part of a clinical environment known as the Intelligent ICU. We implemented temporal deep learning models based on two distinct sources of patient data: (1) routinely measured vital signs from electronic health records, and (2) activity data collected from wearable sensors. As a proxy for illness severity, our models predicted whether patients leaving the intensive care unit would be successfully or unsuccessfully discharged from the hospital. We overcome the challenge of small sample size in our prospective cohort by applying deep transfer learning using EHR data from a much larger cohort of traditional ICU patients. Our experiments quantify added utility of non-traditional measurements for predicting patient health, especially when applying a transfer learning procedure to small novel Intelligent ICU cohorts of critically ill patients.Entities:
Keywords: deep learning; electronic health records; intelligent ICU; intensive care unit; machine learning; transfer learning
Year: 2021 PMID: 33718920 PMCID: PMC7954405 DOI: 10.3389/fdgth.2021.640685
Source DB: PubMed Journal: Front Digit Health ISSN: 2673-253X