European Heart Journal · 2020 · 163 citations · 112 references
Life SciencesCardiologyPhysiologyClinical PharmacologyMolecular DiagnosticsPathophysiologyCardiovascular DiseaseCardiovascular PathophysiologyEndothelial DysfunctionMicrocirculatory DysfunctionMicrocirculatory PhysiologyMicrovascular Dysfunction AssessmentEx Vivo ImagingEx Vivo ModelsMicrocirculatory AlterationsMicrovascular ComplicationsMicrovascular HemodynamicsNon-invasive ExaminationOxidative Stress In Cardiovascular DiseaseOxidative Stress Injury
The development of novel, non-invasive techniques and standardization of protocols to assess microvascular dysfunction have elucidated the key role of microvascular changes in the evolution of cardiovascular (CV) damage, and their capacity to predict an increased risk of adverse events. These technical advances parallel with the development of novel biological assays that enabled the ex vivo identification of pathways promoting microvascular dysfunction, providing novel potential treatment targets for preventing cerebral-CV disease. In this article, we provide an update of diagnostic testing strategies to detect and characterize microvascular dysfunction and suggestions on how to standardize and maximize the information obtained from each microvascular assay. We examine emerging data highlighting the significance of microvascular dysfunction in the development CV disease manifestations. Finally, we summarize the pathophysiology of microvascular dysfunction emphasizing the role of oxidative stress and its regulation by epigenetic mechanisms, which might represent potential targets for novel interventions beyond conventional approaches, representing a new frontier in CV disease reduction.
112
The p66shc adaptor protein controls oxidative stress response and life span in mammals
Enrica Migliaccio, Marco Giorgio, Simonetta Mele et al. · Nature · 1999 · 1.7K citations
Coronary Microvascular Dysfunction
Paolo G. Camici, Filippo Crea · New England Journal of Medicine · 2007 · 1.6K citations