Key result
Dynamic simulation and digital twins remain investigational in atrial fibrillation care, with current applications limited to feasibility studies and mechanistic modeling without proven outcome benefits.
Why the study?
What is the emerging role and current limitations of dynamic simulation and digital twins in atrial fibrillation care?
What is the emerging role and current limitations of dynamic simulation and digital twins in atrial fibrillation care?
Digital twins and dynamic simulation in AF care currently serve as complementary tools for procedural planning and risk estimation refinement, but remain investigational for routine clinical guidance.
Digital twins should not guide routine AF care yet; leaves open the need for prospective outcome trials beyond feasibility modeling.
Atrial fibrillation (AF) management relies on established risk scores, with CHA 2 DS 2 -VASc supporting thromboembolic risk assessment and HAS-BLED identifying modifiable bleeding risks rather than determining anticoagulation eligibility. Although widely validated and guideline-endorsed, these population-based models provide limited personalization and do not capture temporal dynamics, patient heterogeneity, or evolving disease trajectories. Advances in artificial intelligence, machine learning, dynamic simulation, and digital twin methodologies may enable more individualized and temporally adaptive decision-making. This narrative review evaluates the emerging role of dynamic simulation and digital twins in AF care, focusing on their potential to complement established frameworks, the evidence supporting their use, and barriers to clinical implementation. Current applications remain largely limited to feasibility studies, mechanistic modeling, and procedural use cases such as patient-specific ablation planning. Machine learning models may modestly improve prediction over traditional risk scores but are generally static or only episodically updated. Fully adaptive digital twins capable of recurrent updating and individualized clinical guidance have not been validated in routine practice, and reported gains primarily reflect predictive accuracy or simulation fidelity rather than improved patient outcomes. Major barriers include fragmented data ecosystems, limited longitudinal multimodal datasets, lack of prospective validation, unresolved regulatory and ethical issues, limited interpretability, clinician trust, and workflow integration. Digital twins and dynamic simulation should therefore be viewed as complementary rather than replacement tools: machine learning may refine risk estimation, mechanistic simulation may support procedural planning and investigation, and adaptive digital twins remain investigational without an established clinical role in AF.
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Salman et al. (2026) conducted a review in Atrial fibrillation. Dynamic simulation and digital twins vs. Traditional risk scores was evaluated. Dynamic simulation and digital twins remain investigational in atrial fibrillation care, with current applications limited to feasibility studies and mechanistic modeling without proven outcome benefits.
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