AbstractThe yeast MAPK pathways required for mating versus filamentous growth share multiple components yet specify distinct programs. The mating-specific MAPK, Fus3, prevents crosstalk between the two pathways by unknown mechanisms. Here we show that pheromone signaling induces Fus3-dependent degradation of Tec1, the transcription factor specific to the filamentation pathway. Degradation requires Fus3 kinase activity and a MAPK phosphorylation site in Tec1 at threonine 273. Fus3 associates with Tec1 in unstimulated cells, and active Fus3 phosphorylates Tec1 on T273 in vitro. Destruction of Tec1 requires the F box protein Dia2 (Digs-into-agar-2), and Cdc53, the Cullin of SCF (Skp1-Cdc53-F box) ubiquitin ligases. Notably, mutation of the pho...
AbstractFilamentous invasive growth of S. cerevisiae requires multiple elements of the mitogen-activ...
AbstractThe mechanisms whereby different external cues stimulate the same mitogen-activated protein ...
AbstractBackground: In the budding yeast Saccharomyces cerevisiae, components of a single mitogen-ac...
AbstractThe yeast MAPK pathways required for mating versus filamentous growth share multiple compone...
AbstractSignaling specificity is fundamental for parallel mitogen-activated protein kinase (MAPK) ca...
AbstractSignaling specificity is fundamental for parallel mitogen-activated protein kinase (MAPK) ca...
Being able to accurately respond to the environment is a trait crucial to cellular survival. Howeve...
AbstractThe mechanisms whereby different external cues stimulate the same mitogen-activated protein ...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
All cells must respond correctly to changes in their environment. Paradoxically, many signaling pat...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
AbstractFilamentous invasive growth of S. cerevisiae requires multiple elements of the mitogen-activ...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
AbstractFilamentous invasive growth of S. cerevisiae requires multiple elements of the mitogen-activ...
AbstractThe mechanisms whereby different external cues stimulate the same mitogen-activated protein ...
AbstractBackground: In the budding yeast Saccharomyces cerevisiae, components of a single mitogen-ac...
AbstractThe yeast MAPK pathways required for mating versus filamentous growth share multiple compone...
AbstractSignaling specificity is fundamental for parallel mitogen-activated protein kinase (MAPK) ca...
AbstractSignaling specificity is fundamental for parallel mitogen-activated protein kinase (MAPK) ca...
Being able to accurately respond to the environment is a trait crucial to cellular survival. Howeve...
AbstractThe mechanisms whereby different external cues stimulate the same mitogen-activated protein ...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
All cells must respond correctly to changes in their environment. Paradoxically, many signaling pat...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
AbstractFilamentous invasive growth of S. cerevisiae requires multiple elements of the mitogen-activ...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
The yeast transcription factor Ste12 controls both mating and filamentation pathways. Upon pheromone...
AbstractFilamentous invasive growth of S. cerevisiae requires multiple elements of the mitogen-activ...
AbstractThe mechanisms whereby different external cues stimulate the same mitogen-activated protein ...
AbstractBackground: In the budding yeast Saccharomyces cerevisiae, components of a single mitogen-ac...