The aggregation of the two yeast proteins Sup35p and Ure2p is widely accepted as a model for explaining the prion propagation of the phenotypes [PSI+] and [URE3], respectively. Here, we demonstrate that the propagation of [URE3] cannot simply be the consequence of generating large aggregates of Ure2p, because such aggregation can be found in some conditions that are not related to the prion state of Ure2p. A comparison of [PSI+] and [URE3] aggregation demonstrates differences between these two prion mechanisms. Our findings lead us to propose a new unifying model for yeast prion propagation
The yeast cytoplasmically inherited genetic determinant [PSI1] is presumed to be a manifestation of ...
Prions are classically understood as infectious agents capable of transmission by a mechanism of con...
Prions are proteins capable of adopting misfolded conformations and transmitting these conformations...
The use of yeast systems to study the propagation of prions and amyloids has emerged as a crucial as...
International audienceThe [URE3] yeast prion is a self-propagating inactive form of the Ure2 protein...
International audienceThe yeast prion [URE3] is a self-propagating inactive form (the propagon) of t...
The yeast Saccharomyces cerevisiae contains in its proteome at least three prion proteins. These pro...
AbstractPrions are self-propagating protein conformations. Recent research brought insight into prio...
International audience: Previous genetic approaches have enabled the identification of key partners ...
A cytoplasmically inherited element, [URE3], allows yeast to use ureidosuccinate in the presence of ...
International audienceTwo infectious proteins (prions) of Saccharomyces cerevisiae have been identif...
Prions, or infectious proteins, are self-templating ordered aggregates capable of replication. One ...
ABSTRACT The yeast Saccharomyces cerevisiae harbors several prions that constitute powerful models t...
Newly made polypeptide chains not only require the help of molecular chaperones to rapidly reach the...
ABSTRACT The yeast Saccharomyces cerevisiae harbors several prions that constitute powerful models t...
The yeast cytoplasmically inherited genetic determinant [PSI1] is presumed to be a manifestation of ...
Prions are classically understood as infectious agents capable of transmission by a mechanism of con...
Prions are proteins capable of adopting misfolded conformations and transmitting these conformations...
The use of yeast systems to study the propagation of prions and amyloids has emerged as a crucial as...
International audienceThe [URE3] yeast prion is a self-propagating inactive form of the Ure2 protein...
International audienceThe yeast prion [URE3] is a self-propagating inactive form (the propagon) of t...
The yeast Saccharomyces cerevisiae contains in its proteome at least three prion proteins. These pro...
AbstractPrions are self-propagating protein conformations. Recent research brought insight into prio...
International audience: Previous genetic approaches have enabled the identification of key partners ...
A cytoplasmically inherited element, [URE3], allows yeast to use ureidosuccinate in the presence of ...
International audienceTwo infectious proteins (prions) of Saccharomyces cerevisiae have been identif...
Prions, or infectious proteins, are self-templating ordered aggregates capable of replication. One ...
ABSTRACT The yeast Saccharomyces cerevisiae harbors several prions that constitute powerful models t...
Newly made polypeptide chains not only require the help of molecular chaperones to rapidly reach the...
ABSTRACT The yeast Saccharomyces cerevisiae harbors several prions that constitute powerful models t...
The yeast cytoplasmically inherited genetic determinant [PSI1] is presumed to be a manifestation of ...
Prions are classically understood as infectious agents capable of transmission by a mechanism of con...
Prions are proteins capable of adopting misfolded conformations and transmitting these conformations...