Key result
Dynamically revising deep learning models with personal ECGs improves hypokalaemia and hyperkalaemia diagnosis over traditional prediction.
Why the study?
Deep learning models have been applied to diagnose dyskalaemias from ECGs, but no study had explored their performance in continuous follow-up scenarios using personal pre-annotated ECGs in patients with multiple visits.
Does a dynamic revision of DLM-enabled ECG improve the diagnosis of dyskalaemias compared to traditional direct prediction in patients with multiple visits?
Observational (n=136,704)
Yes
Does a dynamic revision of DLM-enabled ECG improve the diagnosis of dyskalaemias compared to traditional direct prediction in patients with multiple visits?
A dynamic deep learning algorithm incorporating personal pre-annotated ECGs significantly improves the diagnostic accuracy for dyskalaemias in patients with multiple visits.
Answers are grounded in this paper and cite their sources.
May aid dyskalaemia detection on serial ECGs; leaves open prospective validation before clinical adoption.
Aims Deep learning models (DLMs) have shown superiority in electrocardiogram (ECG) analysis and have been applied to diagnose dyskalaemias. However, no study has explored the performance of DLM-enabled ECG in continuous follow-up scenarios. Therefore, we proposed a dynamic revision of DLM-enabled ECG to use personal pre-annotated ECGs to enhance the accuracy in patients with multiple visits. Methods and results We retrospectively collected 168 450 ECGs with corresponding serum potassium (K+) levels from 103 091 patients as development samples. In the internal/external validation sets, the numbers of ECGs with corresponding K+ were 37 246/47 604 from 13 555/20 058 patients. Our dynamic revision method showed better performance than the traditional direct prediction for diagnosing hypokalaemia [area under the receiver operating characteristic curve (AUC) = 0.730/0.720–0.788/0.778] and hyperkalaemia (AUC = 0.884/0.888–0.915/0.908) in patients with multiple visits. Conclusion Our method has shown a distinguishable improvement in DLMs for diagnosing dyskalaemias in patients with multiple visits, and we also proved its application in ejection fraction prediction, which could further improve daily clinical practice.
No takes yet. Share an insight, caveat, or question.
Lou et al. (2022) conducted an observational in Dyskalaemias (n=136,704). Dynamic revision of DLM-enabled ECG vs. Traditional direct prediction was evaluated on Diagnosis of hypokalaemia and hyperkalaemia (AUC 0.788/0.778 (hypokalaemia), 0.915/0.908 (hyperkalaemia)). A dynamic revision of deep learning models using personal pre-annotated ECGs improved the diagnosis of hypokalaemia (AUC 0.788/0.778) and hyperkalaemia (AUC 0.915/0.908) over traditional prediction.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: