Key result
Aortic valve calcification is associated with marked disruption of extracellular matrix and metabolic pathways, specifically identifying FNDC1 and MXRA5 as novel overexpressed biomarkers.
Why the study?
Does the extracellular matrix proteome differ significantly between calcified and noncalcified human aortic valves?
Does the extracellular matrix proteome differ significantly between calcified and noncalcified human aortic valves?
The identification of FNDC1 and MXRA5 as overexpressed ECM proteins in calcified aortic valves highlights potential novel biomarkers and translational targets for slowing or reversing aortic stenosis progression.
This study analyzed the expression of extracellular matrix (ECM) proteins during aortic valve calcification with mass spectrometry, and further validated in an independent human cohort using RNAseq data. The study reveals that valve calcification is associated with significant disruption in ECM and metabolic pathways, and highlights a strong connection between metabolic markers and ECM remodeling. It also identifies FNDC1 and MXRA5 as novel ECM biomarkers in calcified valves, electing them as potential targets in the development and progression of aortic stenosis.
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Bouchareb et al. (2021) studied Aortic Valve Calcification / Aortic Stenosis (n=35). Aortic valve calcification vs. Noncalcified control valves was evaluated on Differential expression of extracellular matrix (ECM) proteins in calcified versus noncalcified aortic valves. Aortic valve calcification is associated with marked disruption of extracellular matrix and metabolic pathways, specifically identifying FNDC1 and MXRA5 as novel overexpressed biomarkers.
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