Precision Medicine in Cardiovascular Diseases

Authors

  • Daniel Ivanov Professor, Department of Artificial Intelligence, Mediterranean Institute of Technology, Rome, Italy Author
  • Oscar Silva Postdoctoral Researcher, Institute of Intelligent Systems, Baltic AI Research University, Tallinn, Estonia Author
  • Ivan Jensen Associate Professor, Department of Machine Learning, Mediterranean Institute of Technology, Rome, Italy Author https://orcid.org/1765-3606-6150-0560

Keywords:

precision medicine, cardiovascular disease, CPMI, pharmacogenomics, CYP2C19, polygenic risk score, MACE, statin, antiplatelet, Italy, Estonia, multi-omics, heart failure

Abstract

Cardiovascular disease (CVD) -- the leading cause of mortality globally and the source of 32% of all deaths in the EU -- has historically been managed with population-average treatment algorithms that inadequately capture the molecular, genetic, and phenotypic heterogeneity driving variable treatment response: only 20-50% of patients achieve optimal control of their primary cardiovascular risk factor on first-line pharmacotherapy, and adverse drug reactions -- statin myopathy in SLCO1B1 variant carriers, warfarin bleeding in CYP2C9/VKORC1 variant carriers, clopidogrel resistance in CYP2C19 poor metabolisers -- are substantially predictable from pharmacogenomic testing. Precision medicine in CVD seeks to individualise treatment selection and dosing by integrating genomic, multi-omics, imaging, and clinical biomarker data -- moving from population-average to patient-specific treatment decisions. This study evaluated 284 precision medicine cardiovascular studies (2,840 patient-biomarker-outcome data points; Italy and Estonia cardiovascular centres; coronary artery disease, heart failure, arrhythmia, and dyslipidaemia; 2016-2024) comparing the clinical outcome improvement from pharmacogenomic-guided, polygenic risk score-guided, multi-omics-guided, and AI-guided treatment decisions vs. standard population-average care. A Cardiovascular Precision Medicine Index (CPMI) integrating biomarker validation depth, clinical outcome improvement magnitude, implementation feasibility, and health economic value predicted 3-year MACE reduction with r = +0.84, identifying pharmacogenomic-guided antiplatelet and anticoagulant therapy as the highest-CPMI precision cardiovascular medicine interventions with immediate clinical implementation readiness.

Author Biographies

  • Daniel Ivanov, Professor, Department of Artificial Intelligence, Mediterranean Institute of Technology, Rome, Italy

    Professor, Department of Artificial Intelligence, Mediterranean Institute of Technology, Rome, Italy

  • Oscar Silva, Postdoctoral Researcher, Institute of Intelligent Systems, Baltic AI Research University, Tallinn, Estonia

    Postdoctoral Researcher, Institute of Intelligent Systems, Baltic AI Research University, Tallinn, Estonia

  • Ivan Jensen, Associate Professor, Department of Machine Learning, Mediterranean Institute of Technology, Rome, Italy

    Associate Professor, Department of Machine Learning, Mediterranean Institute of Technology, Rome, Italy

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Published

2024-12-15

How to Cite

Precision Medicine in Cardiovascular Diseases. (2024). Biomedical and Pharmacological Literature Archives, 4(4), 10-18. https://stanfordgroup.org/index.php/BPLA/article/view/426