Why the study?
Cardiac dysrhythmias cause considerable morbidity and mortality, and predicting them using electronic health records could enable earlier diagnosis and treatment to improve cardiovascular outcomes.
Does a long-short term memory (LSTM) deep learning model improve the prediction of cardiac dysrhythmias compared to traditional machine learning models using electronic health record data?
Does a long-short term memory (LSTM) deep learning model improve the prediction of cardiac dysrhythmias compared to traditional machine learning models using electronic health record data?
A time-series deep learning model (LSTM) outperformed traditional machine learning models in predicting cardiac dysrhythmias using EHR data, highlighting its potential for early diagnosis and prevention.
LSTM models may enable earlier CD detection from EHR time-series data; leaves open prospective validation before clinical adoption.
BACKGROUND: Cardiac dysrhythmias (CD) affect millions of Americans in the United States (US), and are associated with considerable morbidity and mortality. New strategies to combat this growing problem are urgently needed. OBJECTIVES: Predicting CD using electronic health record (EHR) data would allow for earlier diagnosis and treatment of the condition, thus improving overall cardiovascular outcomes. The Guideline Advantage (TGA) is an American Heart Association ambulatory quality clinical data registry of EHR data representing 70 clinics distributed throughout the US, and has been used to monitor outpatient prevention and disease management outcome measures across populations and for longitudinal research on the impact of preventative care. METHODS: For this study, we represented all time-series cardiovascular health (CVH) measures and the corresponding data collection time points for each patient by numerical embedding vectors. We then employed a deep learning technique-long-short term memory (LSTM) model-to predict CD from the vector of time-series CVH measures by 5-fold cross validation and compared the performance of this model to the results of deep neural networks, logistic regression, random forest, and Naïve Bayes models. RESULTS: We demonstrated that the LSTM model outperformed other traditional machine learning models and achieved the best prediction performance as measured by the average area under the receiver operator curve (AUROC): 0.76 for LSTM, 0.71 for deep neural networks, 0.66 for logistic regression, 0.67 for random forest, and 0.59 for Naïve Bayes. The most influential feature from the LSTM model were blood pressure. CONCLUSIONS: These findings may be used to prevent CD in the outpatient setting by encouraging appropriate surveillance and management of CVH.
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Guo et al. (2021) studied this question.
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