Active Heart, Stroke & Blood Computing & AI

Prospective evaluation of artificial intelligence-enhanced electrocardiography for diagnosis of structural heart disease

In plain English

AI plain-English summary

A single 12-lead electrocardiogram, enhanced by artificial intelligence, could flag hidden structural heart disease before symptoms appear. Structural heart disease—including weakened heart muscle, faulty valves, and high blood pressure in the lungs—often goes undetected until it causes serious illness or death. Current diagnosis typically requires expensive imaging like echocardiography, which is not routinely available in GP surgeries or community settings. The researchers have already developed AI models that can spot these conditions from standard ECG data, but those models have only been tested on stored, retrospective datasets. This project will test them in real-world clinical practice, using ECGs taken from patients in hospitals and clinics, and also from consumer wearable devices such as smartwatches. If the AI-ECG platform proves accurate in live settings, it could transform how structural heart disease is diagnosed. A cheap, non-invasive test that takes minutes could be deployed in GP surgeries, pharmacies, or even at home, catching disease earlier and reducing hospital admissions and premature deaths. The researchers will also compare the AI’s performance against the blood biomarker NT-proBNP, and explore whether combining the two improves detection. Success would support the rollout of AI-enhanced ECGs as a routine point-of-care screening tool, quietly reshaping cardiovascular diagnostics without patients needing to visit a specialist.

View original technical description
Undiagnosed structural heart disease (SHD) contributes to significant morbidity, hospital admissions, and early mortality, conferring a huge financial burden. Our group has been at the forefront of developing explainable and actionable artificial intelligence (AI) enhanced electrocardiogram (AI-ECG) models offering a promising approach to early diagnosis, risk detection, and disease management using routine 12-lead ECGs, and through wearable and portable devices that enables cheap, non-invasive health monitoring. Although our models have been extensively externally validated through retrospective analysis of large datasets, prospective validation in real-world settings is essential to establish the efficacy of these technologies in clinical practice and instil clinician and patient confidence. We hypothesise that our AI-ECG platform can accurately identify SHD, including reduced left ventricular ejection fraction, moderate to severe valvular heart disease, and pulmonary hypertension, from ‘real world’ 12-lead ECG data, and ECG data derived from consumer and medical portable and wearable devices. In addition, we will compare and combine our AI-ECG detections with established biomarkers such as NT-proBNP in their ability to diagnose SHD. Results will support the application of AI-ECG models using 12-lead ECGs, and ECG data using wearable and portable medical devices, to facilitate their role in providing inexpensive and non-invasive point-of-care health assessments.

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Researchers

Fu Siong Ng (EPMC Awardee)

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Original classification

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