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Culturing Mouse Cardiac Valves in the Miniature Tissue Culture System

Heart valve disease is a major burden in the Western world and no effective treatment is available. This is mainly due to a lack of knowledge of the molecular, cellular and mechanical mechanisms underlying the maintenance and/or loss of the valvular structure. Current models used to study valvular b...

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Published in:Journal of visualized experiments 2015-10 (105), p.e52750-e52750
Main Authors: Kruithof, Boudewijn P T, Lieber, Samuel C, Kruithof-de Julio, Marianna, Gaussin, Vincian, Goumans, Marie José
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container_issue 105
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container_title Journal of visualized experiments
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creator Kruithof, Boudewijn P T
Lieber, Samuel C
Kruithof-de Julio, Marianna
Gaussin, Vincian
Goumans, Marie José
description Heart valve disease is a major burden in the Western world and no effective treatment is available. This is mainly due to a lack of knowledge of the molecular, cellular and mechanical mechanisms underlying the maintenance and/or loss of the valvular structure. Current models used to study valvular biology include in vitro cultures of valvular endothelial and interstitial cells. Although, in vitro culturing models provide both cellular and molecular mechanisms, the mechanisms involved in the 3D-organization of the valve remain unclear. While in vivo models have provided insight into the molecular mechanisms underlying valvular development, insight into adult valvular biology is still elusive. In order to be able to study the regulation of the valvular 3D-organization on tissue, cellular and molecular levels, we have developed the Miniature Tissue Culture System. In this ex vivo flow model the mitral or the aortic valve is cultured in its natural position in the heart. The natural configuration and composition of the leaflet are maintained allowing the most natural response of the valvular cells to stimuli. The valves remain viable and are responsive to changing environmental conditions. This MTCS may provide advantages on studying questions including but not limited to, how does the 3D organization affect valvular biology, what factors affect 3D organization of the valve, and which network of signaling pathways regulates the 3D organization of the valve.
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subjects Animals
Aortic Valve - anatomy & histology
Aortic Valve - physiology
Bioengineering
Heart Valves - anatomy & histology
Heart Valves - physiology
Mice
Mitral Valve - anatomy & histology
Mitral Valve - physiology
Tissue Culture Techniques - methods
title Culturing Mouse Cardiac Valves in the Miniature Tissue Culture System
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