Literature DB >> 10458738

Slow heat rate increases yeast thermotolerance by maintaining plasma membrane integrity.

I Martínez de Marañón1, N Chaudanson, N Joly, P Gervais.   

Abstract

Thermal resistance of Saccharomyces cerevisiae was found to be drastically dependent on the kinetics of heat perturbation. Yeasts were found to be more resistant to a plateau of 1 h at 50 degrees C after a slope of temperature increase (slow and linear temperature increments) than after a shock (sudden temperature change). Thermotolerance was mainly acquired between 40-50 degrees C during a heat slope, i.e., above the maximal temperature of growth. The death of the yeasts subjected to a heat shock might be related to the loss of membrane integrity: intracellular contents extrusion, i.e., membrane permeabilization, was found to precede cell death. However, the permeabilization did not precede cell death during a heat slope and, therefore, membrane permeabilization was a consequence rather than a cause of cell death. During a slow temperature increase, yeasts which remain viable may have time to adapt their plasma membrane and thus maintain membrane integrity. Copyright 1999 John Wiley & Sons, Inc.

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Year:  1999        PMID: 10458738

Source DB:  PubMed          Journal:  Biotechnol Bioeng        ISSN: 0006-3592            Impact factor:   4.530


  7 in total

1.  An enhanced approach for engineering thermally stable proteins using yeast display.

Authors:  Tej V Pavoor; Jean A Wheasler; Viraj Kamat; Eric V Shusta
Journal:  Protein Eng Des Sel       Date:  2012-07-05       Impact factor: 1.650

2.  Understanding the Mechanism of Thermotolerance Distinct From Heat Shock Response Through Proteomic Analysis of Industrial Strains of Saccharomyces cerevisiae.

Authors:  Wenqing Shui; Yun Xiong; Weidi Xiao; Xianni Qi; Yong Zhang; Yuping Lin; Yufeng Guo; Zhidan Zhang; Qinhong Wang; Yanhe Ma
Journal:  Mol Cell Proteomics       Date:  2015-04-29       Impact factor: 5.911

3.  Cell periphery-related proteins as major genomic targets behind the adaptive evolution of an industrial Saccharomyces cerevisiae strain to combined heat and hydrolysate stress.

Authors:  Valeria Wallace-Salinas; Daniel P Brink; Dag Ahrén; Marie F Gorwa-Grauslund
Journal:  BMC Genomics       Date:  2015-07-09       Impact factor: 3.969

4.  SO(2) protects the amino nitrogen metabolism of Saccharomyces cerevisiae under thermal stress.

Authors:  Carmen Ancín-Azpilicueta; Blanca Barriuso-Esteban; Rodrigo Nieto-Rojo; Nerea Aristizábal-López
Journal:  Microb Biotechnol       Date:  2012-03-27       Impact factor: 5.813

5.  Extremely rapid acclimation of Escherichia coli to high temperature over a few generations of a fed-batch culture during slow warming.

Authors:  Stéphane Guyot; Laurence Pottier; Alain Hartmann; Mélanie Ragon; Julia Hauck Tiburski; Paul Molin; Eric Ferret; Patrick Gervais
Journal:  Microbiologyopen       Date:  2013-12-20       Impact factor: 3.139

6.  Surviving the heat: heterogeneity of response in Saccharomyces cerevisiae provides insight into thermal damage to the membrane.

Authors:  Stéphane Guyot; Patrick Gervais; Michael Young; Pascale Winckler; Jennifer Dumont; Hazel Marie Davey
Journal:  Environ Microbiol       Date:  2015-05-14       Impact factor: 5.491

7.  Osmo-, Thermo- and Ethanol- Tolerances of Saccharomyces cerevisiae S1.

Authors:  Sandrasegarampillai Balakumar; Vasanthy Arasaratnam
Journal:  Braz J Microbiol       Date:  2012-06-01       Impact factor: 2.476

  7 in total

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