Cells constantly adapt to environmental fluctuations. These physiological changes require time and therefore cause a lag phase during which the cells do not function optimally. Interestingly, past exposure to an environmental condition can shorten the time needed to adapt when the condition re-occurs, even in daughter cells that never directly encountered the initial condition. Here, we use the molecular toolbox of Saccharomyces cerevisiae to systematically unravel the molecular mechanism underlying such history-dependent behavior in transitions between glucose and maltose. In contrast to previous hypotheses, the behavior does not depend on persistence of proteins involved in metabolism of a specific sugar. Instead, presence of glucose indu...
Abstract Background Natural and industrial environments are dynamic with respect to substrate availa...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
This thesis is about basic science and seeing new details on how biological systems work. We investi...
The diauxic shift in Saccharomyces cerevisiae is an ideal model to study how eukaryotic cells readju...
Cells from the budding yeast Saccharomyces cerevisiae experience a lag phase when switching from gro...
Introduction: The switch from quiescence (G0) into G1 and cell cycle progression critically depends ...
<div><p>Delineating the strategies by which cells contend with combinatorial changing environments i...
Background: Natural and industrial environments are dynamic with respect to substrate availability a...
ABSTRACT When faced with environmental changes, microbes often enter a temporary growth arrest durin...
When faced with environmental changes, microbes often enter a temporary growth arrest during which t...
Baker's yeast Saccharomyces cerevisiae rapidly converts sugars to ethanol and carbon dioxide at both...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
<div><p>Baker’s yeast <i>Saccharomyces cerevisiae</i> rapidly converts sugars to ethanol and carbon ...
Delineating the strategies by which cells contend with combinatorial changing environments is crucia...
Abstract Background Natural and industrial environments are dynamic with respect to substrate availa...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
This thesis is about basic science and seeing new details on how biological systems work. We investi...
The diauxic shift in Saccharomyces cerevisiae is an ideal model to study how eukaryotic cells readju...
Cells from the budding yeast Saccharomyces cerevisiae experience a lag phase when switching from gro...
Introduction: The switch from quiescence (G0) into G1 and cell cycle progression critically depends ...
<div><p>Delineating the strategies by which cells contend with combinatorial changing environments i...
Background: Natural and industrial environments are dynamic with respect to substrate availability a...
ABSTRACT When faced with environmental changes, microbes often enter a temporary growth arrest durin...
When faced with environmental changes, microbes often enter a temporary growth arrest during which t...
Baker's yeast Saccharomyces cerevisiae rapidly converts sugars to ethanol and carbon dioxide at both...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
<div><p>Baker’s yeast <i>Saccharomyces cerevisiae</i> rapidly converts sugars to ethanol and carbon ...
Delineating the strategies by which cells contend with combinatorial changing environments is crucia...
Abstract Background Natural and industrial environments are dynamic with respect to substrate availa...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...
Organisms respond to environmental changes by adapting the expression of key genes. However, such tr...