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Narrative review discusses AI and machine learning in cardio-oncology to mitigate cancer therapy-related cardiovascular toxicity risks

Narrative review discusses AI and machine learning in cardio-oncology to mitigate cancer therapy-rel…
Photo by Hitesh Choudhary / Unsplash
Key Takeaway
Consider AI and machine learning for personalized risk mitigation in cardio-oncology while addressing data heterogeneity.

This narrative review explores the application of artificial intelligence and machine learning within the field of cardio-oncology. The scope of the discussion centers on managing cancer therapy-related cardiovascular toxicity. The authors do not report a specific study population or sample size. Instead, they synthesize qualitative arguments regarding the potential of these technologies in risk assessment.

The authors identify several key limitations inherent to current implementations. These include significant data heterogeneity across different datasets and issues regarding model interpretability. The review also notes the difficulty of achieving equitable implementation of these advanced tools in clinical practice. No specific adverse events or tolerability data are reported in this source.

The practice relevance emphasized by the authors focuses on balancing therapeutic efficacy with patient safety. The goal is to ensure the effectiveness of cancer treatment while safeguarding long-term cardiovascular health. This is achieved through the adoption of personalized risk mitigation measures. Clinicians should consider these technological tools as part of a broader strategy for risk management.

Study Details

Study typeSystematic review
EvidenceLevel 1
PublishedApr 2026
View Original Abstract ↓
Cancer therapy-related cardiovascular toxicity (CTR-CVT) threatens the sustainability of oncological advancements, demanding innovative approaches for early risk stratification. This review synthesizes how artificial intelligence (AI) is redefining cardio-oncology through multimodal integration of multi-omics, dynamic imaging, and real-world biosensor data. By decoding novel pathophysiological mechanisms and enabling continuous risk reclassification, AI transcends traditional static paradigms to generate patient-specific toxicity trajectories. Crucially, AI-driven interventions shift clinical practice from reactive monitoring to preemptive cardioprotection. While challenges in data heterogeneity, model interpretability, and equitable implementation persist, emerging solutions like federated learning and explainable AI pave the way for robust clinical translation. We hope that this review will summarize the current state of emerging applications of machine learning and AI in precision medicine predictive modeling, providing direction for AI-enabled precision cardiovascular oncology—ensuring the effectiveness of cancer treatment while safeguarding long-term cardiovascular health through personalized risk mitigation measures.
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