Repository logo
Log In(current)
  • Inicio
  • Personal de Investigación
  • Unidad Académica
  • Publicaciones
  • Colecciones
    Datos de Investigacion Divulgacion cientifica Personal de Investigacion Protecciones Proyectos Externos Proyectos Internos Publicaciones Tesis
  1. Home
  2. Universidad de Santiago de Chile
  3. Publicaciones
  4. Comparative Transcriptome Assembly and Genome-Guided Profiling for Brettanomyces Bruxellensis lamap2480 During P-Coumaric Acid Stress
Details

Comparative Transcriptome Assembly and Genome-Guided Profiling for Brettanomyces Bruxellensis lamap2480 During P-Coumaric Acid Stress

Journal
Scientific Reports
ISSN
2045-2322
Date Issued
2016
Author(s)
Martinez-Fernandez, C  
Ganga-Munoz, M  
Godoy-Olivares, L  
DOI
https://doi.org/10.1038/srep34304
Abstract
Brettanomyces bruxellensis has been described as the main contaminant yeast in wine production, due to its ability to convert the hydroxycinnamic acids naturally present in the grape phenolic derivatives, into volatile phenols. Currently, there are no studies in B. bruxellensis which explains the resistance mechanisms to hydroxycinnamic acids, and in particular to p-coumaric acid which is directly involved in alterations to wine. In this work, we performed a transcriptome analysis of B. bruxellensis LAMAP248rown in the presence and absence of p-coumaric acid during lag phase. Because of reported genetic variability among B. bruxellensis strains, to complement de novo assembly of the transcripts, we used the high-quality genome of B. bruxellensis AWRI1499, as well as the draft genomes of strains CBS2499 and0 g LAMAP2480. The results from the transcriptome analysis allowed us to propose a model in which the entrance of p-coumaric acid to the cell generates a generalized stress condition, in which the expression of proton pump and efflux of toxic compounds are induced. In addition, these mechanisms could be involved in the outflux of nitrogen compounds, such as amino acids, decreasing the overall concentration and triggering the expression of nitrogen metabolism genes. © 2016 The Author(s).
Get Involved!
  • Source Code
  • Documentation
  • Slack Channel
Make it your own

DSpace-CRIS can be extensively configured to meet your needs. Decide which information need to be collected and available with fine-grained security. Start updating the theme to match your Institution's web identity.

Need professional help?

The original creators of DSpace-CRIS at 4Science can take your project to the next level, get in touch!

Logo USACH

Universidad de Santiago de Chile
Avenida Libertador Bernardo O'Higgins nº 3363. Estación Central. Santiago Chile.
ciencia.abierta@usach.cl © 2023
The DSpace CRIS Project - Modificado por VRIIC USACH.

  • Accessibility settings
  • Privacy policy
  • End User Agreement
  • Send Feedback
Logo DSpace-CRIS
Repository logo COAR Notify