FLICU: A Federated Learning Workflow for Intensive Care Unit Mortality
Prediction
- URL: http://arxiv.org/abs/2205.15104v1
- Date: Mon, 30 May 2022 13:45:56 GMT
- Title: FLICU: A Federated Learning Workflow for Intensive Care Unit Mortality
Prediction
- Authors: Lena Mondrejevski, Ioanna Miliou, Annaclaudia Montanino, David Pitts,
Jaakko Hollm\'en, Panagiotis Papapetrou
- Abstract summary: Healthcare data is sensitive, requiring strict privacy practices, and typically stored in data silos.
Federated learning can counteract those limitations by training machine learning models over data silos.
This study proposes a federated learning workflow for ICU mortality prediction.
- Score: 4.16749898760461
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: Although Machine Learning (ML) can be seen as a promising tool to improve
clinical decision-making for supporting the improvement of medication plans,
clinical procedures, diagnoses, or medication prescriptions, it remains limited
by access to healthcare data. Healthcare data is sensitive, requiring strict
privacy practices, and typically stored in data silos, making traditional
machine learning challenging. Federated learning can counteract those
limitations by training machine learning models over data silos while keeping
the sensitive data localized. This study proposes a federated learning workflow
for ICU mortality prediction. Hereby, the applicability of federated learning
as an alternative to centralized machine learning and local machine learning is
investigated by introducing federated learning to the binary classification
problem of predicting ICU mortality. We extract multivariate time series data
from the MIMIC-III database (lab values and vital signs), and benchmark the
predictive performance of four deep sequential classifiers (FRNN, LSTM, GRU,
and 1DCNN) varying the patient history window lengths (8h, 16h, 24h, 48h) and
the number of FL clients (2, 4, 8). The experiments demonstrate that both
centralized machine learning and federated learning are comparable in terms of
AUPRC and F1-score. Furthermore, the federated approach shows superior
performance over local machine learning. Thus, the federated approach can be
seen as a valid and privacy-preserving alternative to centralized machine
learning for classifying ICU mortality when sharing sensitive patient data
between hospitals is not possible.
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