SummaryBackgroundBistability in genetic networks allows cells to remember past events and to make discrete decisions in response to graded signals. Bistable behavior can result from positive feedback, but feedback loops can have other roles in signal transduction as well.ResultsWe introduced positive feedback into the budding-yeast pheromone response to convert it into a bistable system. In the presence of feedback, transient induction with high pheromone levels caused persistent pathway activation, whereas at lower levels a fraction of cells became persistently active but the rest inactivated completely. We also generated mutations that quantitatively tuned the basal and induced expression levels of the feedback promoter and showed that th...
Positive and negative feedback loops are ubiquitous motifs in biochemical signaling pathways. The mi...
Noisy bistable dynamics in gene regulation can underlie stochastic switching and is demonstrated to ...
AbstractSignaling pathways respond to stimuli in a variety of ways, depending on the magnitude of th...
Positive feedback commonly displays bistability, the ability to maintain overtime in the same condit...
Feedback loops are ubiquitous features of biological networks and can produce significant phenotypic...
Biological signaling networks comprised of cellular components including signaling proteins and smal...
SummaryCells make accurate decisions in the face of molecular noise and environmental fluctuations b...
Alternative cell fates represent a form of non-genetic diversity, which can promote adaptation and f...
AbstractAlternative cell fates represent a form of non-genetic diversity, which can promote adaptati...
Bistability is a dynamical property of biological systems which have the ability to possess two dist...
Feedback loops in biological networks, among others, enable differentiation and cell cycle progressi...
AbstractA positive-feedback loop is a simple motif that is ubiquitous to the modules and networks th...
Bistability plays an important role in cellular memory and cell fate determination. A positive feedb...
SummaryBistability plays an important role in cellular memory and cell-fate determination. A positiv...
Positive feedback is a common mechanism in genetic circuits and can be used to achieve amplification...
Positive and negative feedback loops are ubiquitous motifs in biochemical signaling pathways. The mi...
Noisy bistable dynamics in gene regulation can underlie stochastic switching and is demonstrated to ...
AbstractSignaling pathways respond to stimuli in a variety of ways, depending on the magnitude of th...
Positive feedback commonly displays bistability, the ability to maintain overtime in the same condit...
Feedback loops are ubiquitous features of biological networks and can produce significant phenotypic...
Biological signaling networks comprised of cellular components including signaling proteins and smal...
SummaryCells make accurate decisions in the face of molecular noise and environmental fluctuations b...
Alternative cell fates represent a form of non-genetic diversity, which can promote adaptation and f...
AbstractAlternative cell fates represent a form of non-genetic diversity, which can promote adaptati...
Bistability is a dynamical property of biological systems which have the ability to possess two dist...
Feedback loops in biological networks, among others, enable differentiation and cell cycle progressi...
AbstractA positive-feedback loop is a simple motif that is ubiquitous to the modules and networks th...
Bistability plays an important role in cellular memory and cell fate determination. A positive feedb...
SummaryBistability plays an important role in cellular memory and cell-fate determination. A positiv...
Positive feedback is a common mechanism in genetic circuits and can be used to achieve amplification...
Positive and negative feedback loops are ubiquitous motifs in biochemical signaling pathways. The mi...
Noisy bistable dynamics in gene regulation can underlie stochastic switching and is demonstrated to ...
AbstractSignaling pathways respond to stimuli in a variety of ways, depending on the magnitude of th...