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May 9, 2026Biomedicines2 citationsOpen Access

Artificial Intelligence for Prediction and Detection of Atrial Fibrillation from Sinus-Rhythm Electrocardiograms and Ambulatory Monitoring

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PPPanteleimon PantelidisNVNikolaos Vythoulkas-BiotisASAthanasios Samaras

Key Result

Artificial intelligence applied to sinus rhythm ECGs and ambulatory monitoring can predict and detect atrial fibrillation with AUCs up to 0.90, outperforming established clinical risk scores.

Key Points

  • This research aims to enhance the prediction and detection of atrial fibrillation (AF) using artificial intelligence techniques applied to electrocardiograms.
  • Developed deep-learning models trained on 10-s, 12-lead electrocardiograms (ECGs) to detect AF.
  • Applied AI algorithms to 24-h Holter and multi-day patch recordings for real-time monitoring and prediction.
  • Evaluated models against clinical scores like C2HEST and HATCH for detection accuracy.
  • AI models achieved areas under the curve (AUCs) up to 0.90 for identifying prevalent or imminent AF episodes.
  • 24-h Holter recordings achieved AUCs ≥0.80 for detecting occult AF or predicting it within 14 days.
  • Short-term models showed accuracies around 90% in anticipating AF minutes to hours before onset.

Structured PICO

Does artificial intelligence applied to sinus-rhythm ECGs and ambulatory monitoring improve the prediction and detection of atrial fibrillation compared to established clinical scores?

P
Population
Individuals at risk for or with atrial fibrillation
I
Intervention
Artificial intelligence (AI) applied to sinus rhythm from short (10-s, 12-lead) or continuous (24-h Holter, multi-day patch) electrocardiogram recordings
C
Comparator
Established clinical risk scores (e.g., C2HEST, HATCH)
O
Outcome
Prediction and detection of prevalent, long-term, or near-term atrial fibrillation

Artificial intelligence applied to sinus-rhythm ECGs and ambulatory monitoring shows high accuracy for predicting and detecting atrial fibrillation, outperforming traditional clinical scores, though prospective trials assessing clinical outcomes are still needed.

Limitations

  • Most AI-AF studies remain retrospective, single-system and focused on diagnostic yield rather than clinical outcomes like stroke or mortality.
  • Few pragmatic trials have evaluated AI-guided AF screening and its translation into clinical benefit.
  • Most AI-AF studies remain retrospective
  • Single-system
  • Focused on diagnostic yield rather than clinical outcomes like stroke or mortality
  • Few pragmatic trials have evaluated AI-guided AF screening and its translation into clinical benefit

Abstract

Atrial fibrillation (AF) is a highly prevalent arrhythmia associated with stroke, heart failure and excess mortality. Yet, “silent” AF episodes remain undetected, leading to underestimation of disease burden. Additionally, paroxysms occur in an “unpredictable” way, and available clinical scores only stratify long-term AF risk with moderate discrimination, lacking the ability to evaluate near-term events. Artificial intelligence (AI) applied to sinus rhythm from short or continuous electrocardiogram (ECG) recordings shows that such predictive information is hidden in “plain sight.” This complementary approach seeks to uncover latent AF substrate and forecast imminent AF episodes. Deep-learning models trained on 10-s, 12-lead ECGs can identify individuals with prevalent or long- or near-term AF with areas under the curve (AUCs) up to 0.90, outperforming established clinical scores. Image-based AI-ECG models extend these capabilities to paper or scanned ECGs. Furthermore, AI algorithms applied to 24-h Holter and multi-day patch recordings achieve AUCs ≥0.80 for detecting occult AF or predicting it within 14 days, consistently surpassing risk scores like C2HEST and HATCH. Short-term models utilizing heart-rate variability features further demonstrate that AF can be anticipated minutes to hours before onset, with accuracies around 90% in curated datasets. However, most AI-AF studies remain retrospective, single-system and focused on diagnostic yield rather than clinical outcomes like stroke or mortality. Moreover, few pragmatic trials have evaluated AI-guided AF screening and its translation into clinical benefit. Robust prospective trials and standardized evaluation frameworks are needed before AI-guided AF prediction can be routinely integrated into clinical decision-making.

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Cite This Study

Pantelidis et al. (2026) conducted a review in Atrial fibrillation. Artificial intelligence applied to sinus rhythm ECGs and ambulatory monitoring vs. Established clinical scores (e.g., C2HEST, HATCH) was evaluated on Prediction and detection of atrial fibrillation. Artificial intelligence applied to sinus rhythm ECGs and ambulatory monitoring can predict and detect atrial fibrillation with AUCs up to 0.90, outperforming established clinical risk scores.

synapsesocial.com/papers/69fed0e2b9154b0b82877f8ehttps://doi.org/10.3390/biomedicines14051058
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