DNA methylation in cardiovascular disease and heart failure: novel prediction models?

Clin Epigenetics. 2024 Aug 22;16(1):115. doi: 10.1186/s13148-024-01722-x.

Abstract

Background: Cardiovascular diseases (CVD) affect over half a billion people worldwide and are the leading cause of global deaths. In particular, due to population aging and worldwide spreading of risk factors, the prevalence of heart failure (HF) is also increasing. HF accounts for approximately 36% of all CVD-related deaths and stands as the foremost cause of hospitalization. Patients affected by CVD or HF experience a substantial decrease in health-related quality of life compared to healthy subjects or affected by other diffused chronic diseases.

Main body: For both CVD and HF, prediction models have been developed, which utilize patient data, routine laboratory and further diagnostic tests. While some of these scores are currently used in clinical practice, there still is a need for innovative approaches to optimize CVD and HF prediction and to reduce the impact of these conditions on the global population. Epigenetic biomarkers, particularly DNA methylation (DNAm) changes, offer valuable insight for predicting risk, disease diagnosis and prognosis, and for monitoring treatment. The present work reviews current information relating DNAm, CVD and HF and discusses the use of DNAm in improving clinical risk prediction of CVD and HF as well as that of DNAm age as a proxy for cardiac aging.

Conclusion: DNAm biomarkers offer a valuable contribution to improving the accuracy of CV risk models. Many CpG sites have been adopted to develop specific prediction scores for CVD and HF with similar or enhanced performance on the top of existing risk measures. In the near future, integrating data from DNA methylome and other sources and advancements in new machine learning algorithms will help develop more precise and personalized risk prediction methods for CVD and HF.

Keywords: Cardiovascular disease (CVD); DNA methylation; Heart failure (HF); Prediction models.

Publication types

  • Review

MeSH terms

  • Biomarkers
  • Cardiovascular Diseases* / genetics
  • DNA Methylation* / genetics
  • Epigenesis, Genetic / genetics
  • Heart Failure* / genetics
  • Humans
  • Prognosis
  • Risk Assessment / methods
  • Risk Factors

Substances

  • Biomarkers

Grants and funding