Key result
This review explores the evolving paradigm of cardiac valve dynamics, integrating functional structure, mechanical properties, and pathobiology to inform disease mechanisms and tissue engineering.
Why the study?
Considerable progress has been made in understanding the integrated dynamic structure, mechanical properties, and pathobiology of cardiac valves, necessitating a review of evolving concepts.
This review provides a comprehensive framework integrating the biomechanics, cellular biology, and pathobiology of cardiac valves to inform future research and clinical translation in valve repair and tissue engineering.
Considerable progress has been made in recent years toward elucidating a conceptual framework that integrates the dynamic functional structure, mechanical properties, and pathobiological behavior of the cardiac valves. This communication reviews the evolving paradigm of a continuum of heart valve structure, function, and pathobiology and explores its implications. Specifically, we discuss (1) the interactions of valve biology and biomechanics (eg, correlations of function with structure at the cell, tissue, and organ levels and mechanical considerations, development, endothelial cell and interstitial cell biology, extracellular matrix biology, homeostasis, and adaptation to environmental change); (2) mechanisms of disease (eg, valve cell and matrix pathobiology in congenital anomalies, aortic valve calcification, and mitral valve prolapse); (3) considerations in replacement and repair (eg, cell/matrix biology of tissue valve substitutes and their degeneration and durability of repairs); and (4) the potential for tissue engineering approaches to therapeutic regeneration of the cardiac valves. Opportunities for research and clinical translation are highlighted.
No takes yet. Share an insight, caveat, or question.
Frederick J. Schoen (2008) conducted a review in Cardiac valve dynamics and pathobiology. This review explores the evolving paradigm of cardiac valve dynamics, integrating functional structure, mechanical properties, and pathobiology to inform disease mechanisms and tissue engineering.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: