Coronary Artery Development: Origin, Malformations, and Translational Vascular Reparative Therapy.
Daryl RamaiJonathan LaiConstantine MonzidelisSarath ReddyPublished in: Journal of cardiovascular pharmacology and therapeutics (2018)
After thickening of the cardiac chamber walls during embryogenesis, oxygen and nutrients can no longer be adequately supplied to cardiac cells via passive diffusion; therefore, a primitive vascular network develops to supply these vital structures. This plexus further matures into coronary arteries and veins, which ensures continued development of the heart. Various models have been proposed to account for the growth of the coronary arteries. However, lineage-tracing studies in the last decade have identified 3 major sources, namely, the proepicardium, the sinus venosus, and endocardium. Although the exact contribution of each source remains unknown, the emerging model depicts alternative pathways and progenitor cells, which ensure successful coronary angiogenesis. We aim to explore the current trends in coronary artery development, the cellular and molecular signals regulating heart vascularization, and its implications for heart disease and vascular regeneration.
Keyphrases
- coronary artery
- pulmonary artery
- coronary artery disease
- heart failure
- stem cells
- induced apoptosis
- left ventricular
- atrial fibrillation
- high resolution
- drinking water
- mesenchymal stem cells
- oxidative stress
- cell cycle arrest
- vascular endothelial growth factor
- mass spectrometry
- endoplasmic reticulum stress
- signaling pathway
- ultrasound guided
- inferior vena cava
- blood flow
- bone marrow
- pi k akt