Aug 2026· Bioengineering· Vol 13, pp. 993· 0 citations· 33 references
Medicine
TL;DR
MultiCardioNet, a multimodal deep learning framework for early prediction of a composite ICU deterioration endpoint using MIMIC-IV data, suggests that the three modalities provide complementary information for this composite deterioration endpoint in the internal test setting.
Abstract
Cardiovascular deterioration is a clinically important event in intensive care units, but early prediction remains challenging because risk may be reflected across structured clinical variables, physiological time series, and clinical text. In this work, we present MultiCardioNet, a multimodal deep learning framework for early prediction of a composite ICU deterioration endpoint using MIMIC-IV data. The prediction target was defined as vasopressor initiation and/or early death during the 24–72 h outcome window, making the task broader than mortality prediction alone but also related to treatment escalation and circulatory support. The model combines structured clinical variables, 24-h vital sign time series, and timestamp-filtered radiology reports. Structured information was represented using enriched first-24-h clinical features, while physiological dynamics were modeled using a transformer-based time series encoder and radiology reports were represented using CXR-BERT-specialized embeddings. On the held-out test set, MultiCardioNet achieved an AUROC of 0.9014, AUPRC of 0.8481, and F1-score of 0.7723. These findings suggest that the three modalities provide complementary information for this composite deterioration endpoint in the internal test setting.
Traditional ML can outperform DL models such as Transformers on tabular-dominated, multimodal clinical prediction tasks while preserving interpretability, underscoring decision-support systems’ potential to aid timely diagnosis.
Alban Lutz, Fabio Hellmann, E. André· medRxiv· 0 citations
Sepsis and heart failure share early-warning physiology but require divergent treatments, complicating early intensive care intervention. Current predictive models address these conditions independently. We present DualStream-MTCA, a hybrid deep-learning architecture for the simultaneous early detection of both conditi...
Introduction Intensive Care Unit (ICU) patients are at high risk of acute clinical deterioration and in-hospital mortality. Accurate prediction of in-hospital mortality is essential for optimizing clinical decision-making and resource allocation. However, most existing models rely primarily on short-term physiological...
OBJECTIVE
Predicting postoperative deterioration following cardiac surgery remains challenging. Conventional risk scores rely on static variables and fail to capture evolving physiologic trajectories. We developed a time-series deep learning model (DLM) using serial ICU measurements to dynamically predict mortality and...
Mohamad El Moheb, Elio R. Bitar, Kristin Putman et al.· Journal of Thoracic and Card...· 0 citations
It is concluded that TCNs can extract meaningful predictive signal from ICU physiological data, but that short input windows and complete-case selection bias currently limit their clinical utility, motivating future work on longer input horizons, alternative missing-data strategies, and external validation.
Early detection of clinical deterioration and septic shock in Intensive Care Units (ICUs) remains one of the most pressing challenges in modern critical care medicine. Sepsis is characterized by a dysregulated host response to infection, leading to life-threatening organ dysfunction. While traditional early warning sco...
N. Nishu, Nadia Binte· International Journal of App...· 0 citations
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