International Journal of Molecular Sciences · 2017 · 27 citations · 58 references
AgricultureBiochemistryMicrobiologyMicrobial PhysiologyProteomicsWine MicrobiologyMicrobial Metabolites In WineMicrobial Physiology In FermentationMicrobial SpoilageWine FermentationWine Yeast PhysiologyYeast BiologyAging Under FlorCellular Component AnnotationFlor YeastGene Ontology AnalysisIndustrial Yeast FermentationMicrobial Amino Acid MetabolismVitamin B9 (Folate)Wine Yeasts
strains (flor yeasts) form a biofilm (flor velum) on the surface of Sherry wines after fermentation, when glucose is depleted. This flor velum is fundamental to biological aging of these particular wines. In this study, we identify abundant proteins in the formation of the biofilm of an industrial flor yeast strain. A database search to enrich flor yeast "biological process" and "cellular component" according to Gene Ontology Terminology (GO Terms) and, "pathways" was carried out. The most abundant proteins detected were largely involved in respiration, translation, stress damage prevention and repair, amino acid metabolism (glycine, isoleucine, leucine and arginine), glycolysis/gluconeogenesis and biosynthesis of vitamin B9 (folate). These proteins were located in cellular components as in the peroxisome, mitochondria, vacuole, cell wall and extracellular region; being these two last directly related with the flor formation. Proteins like Bgl2p, Gcv3p, Hyp2p, Mdh1p, Suc2p and Ygp1p were quantified in very high levels. This study reveals some expected processes and provides new and important information for the design of conditions and genetic constructions of flor yeasts for improving the cellular survival and, thus, to optimize biological aging of Sherry wine production.
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