Multimodal artificial intelligence using entire electronic health record and complete pathogen genome data for patient outcome prediction from life-threatening infection: the SuperbugAI Platform
Tyagi, S.; Ramakrishnaiah, Y.; Hawkey, J.; Wisniewski, J.; Blakeway, L.; Christian, T.; Sikric, V.; Librata, W.; Song, J.; Webb, G. I.; Ashok, A.; Bain, C.; Macesic, N.; Peleg, A. Y.
Show abstract
Artificial intelligence (AI) has the potential to transform healthcare, with advanced multimodal approaches showing great promise in leveraging diverse health-related data. Here, we applied multimodal AI to entire electronic health record (EHR) and complete pathogen genome data to predict patient outcomes from life-threatening infection. An automated, scalable pipeline was developed for EHR data preprocessing, quality control, and standardisation. A deep learning fusion model was trained to predict in-hospital mortality, need for ICU admission, prolonged length of stay and 30-day unplanned readmission. We then developed a novel genomic large language model (gLLM) architecture to incorporate bacterial genomic features into the multimodal fusion model. The cohort comprised 2,656 bloodstream infection hospitalisations involving 2,535 patients. Deep learning fusion models using entire structured and unstructured EHR data outperformed traditional APACHE II score mortality prediction (AUROC [95% confidence intervals] 0.93 [0.92-0.94] versus 0.77 [0.77-0.78]). The model also showed strong performance for predicting the need for ICU admission (AUROC 0.978 [0.966 - 0.986]), prolonged hospital length of stay (AUROC 0.803 [0.790 - 0.812]) and unplanned readmission (AUROC 0.696 [0.690 - 0.701]). As proof of principle, incorporating entire microbial genomic features from the causative pathogen further enhanced prediction and enabled identification of key bacterial virulence pathways relevant for human disease. Multimodal AI integrating harmonised EHR and genomic data can accurately identify hospitalised patients at risk of poor outcomes. These approaches are scalable to other subspecialities of medicine.
Matching journals
The top 5 journals account for 50% of the predicted probability mass.
Similar papers in this journal
- Large language models improve transferability of electronic health record-based predictions across countries and coding systems 95%
- Development and Prospective Implementation of a Large Language Model based System for Early Sepsis Prediction 93%
- Clinical Knowledge Extraction via Sparse Embedding Regression (KESER) with Multi-Center Large Scale Electronic Health Record Data 93%
Similar papers in this journal
- Convolutional neural networks quantify antibiotic resistance in Mycobacterium tuberculosis with diagnostic grade accuracy and predict treatment response 93%
- Deep representation learning for clustering longitudinal survival data from electronic health records 93%
- Knowledge Connector: Decision support system for multiomics-based precision oncology 92%
Similar papers in this journal
- EHR Foundation Models Improve Robustness in the Presence of Temporal Distribution Shift 93%
- Leveraging Temporal Learning with Dynamic Range (TLDR) for Enhanced Prediction of Outcomes in Recurrent Exposure and Treatment Settings in Electronic Health Records 92%
- Machine learning approach to dynamic risk modeling of mortality in COVID-19: a UK Biobank study 92%
Similar papers in this journal
- Pretrained Patient Trajectories for Adverse Drug Event Prediction Using Common Data Model-based Electronic Health Records 93%
- Achieving Inclusive Healthcare through Integrating Education and Research with AI and Personalized Curricula 92%
- Leveraging sequences missing from the human genome to diagnose cancer 92%
"Similar papers" are the closest papers from that journal in the model's embedding space. They show what the match is built on, but the ranking comes mostly from a classifier over the whole training set, not from these examples alone.