In the cellular response to stresses, the tumor suppressor p53 is activated to maintain genomic integrity and fidelity. As a transcription factor, p53 exhibits rich dynamics to allow for discrimination of the type and intensity of stresses and to direct the selective activation of target genes involved in different processes including cell cycle arrest and apoptosis. In this review, we focused on how stresses are encoded into p53 dynamics and how the dynamics are decoded into cellular outcomes. Theoretical modeling may provide a global view of signaling in the p53 network by coupling the encoding and decoding processes. We discussed the significance of modeling in revealing the mechanisms of the transition between p53 dynamic modes. Moreove...
AbstractThe tumor suppressor p53 plays a key role in the cellular response to various stresses. Most...
Many biological networks respond to various inputs through a common signaling molecule that triggers...
Many biological networks respond to various inputs through a common signaling molecule that triggers...
In mammalian cells, the tumor suppressor p53 is activated upon a variety of cellular stresses and en...
A cell has to react to a multitude of different extrinsic and intrinsic stress signals on a daily ba...
Cellular stress‐induced temporal alterations—i.e., dynamics—are typically exemplified by the dynami...
The p53 tumour suppressor protein is a transcription factor that activates genes that result in cell...
Cells transmit information through molecular signals that often show complex dynamical patterns. The...
The tumor suppressor p53 mainly induces cell cycle arrest/DNA repair or apoptosis in the DNA damage ...
AbstractThe tumor suppressor protein, p53, is part of the cell's emergency team that is called upon ...
The tumor suppressor p53 has become one of most investigated genes. Once activated by stress, p53 le...
The p53 tumour suppressor is best known for its canonical role as “guardian of the genome”, activati...
The tumor suppressor protein p53 plays a central role in the multiple response pathways activated by...
The tumor suppressor p53 has become one of most investigated genes. Once activated by stress, p53 le...
Cells defence against stresses that can cause DNA damage (single-strand breaks, double-strand breaks...
AbstractThe tumor suppressor p53 plays a key role in the cellular response to various stresses. Most...
Many biological networks respond to various inputs through a common signaling molecule that triggers...
Many biological networks respond to various inputs through a common signaling molecule that triggers...
In mammalian cells, the tumor suppressor p53 is activated upon a variety of cellular stresses and en...
A cell has to react to a multitude of different extrinsic and intrinsic stress signals on a daily ba...
Cellular stress‐induced temporal alterations—i.e., dynamics—are typically exemplified by the dynami...
The p53 tumour suppressor protein is a transcription factor that activates genes that result in cell...
Cells transmit information through molecular signals that often show complex dynamical patterns. The...
The tumor suppressor p53 mainly induces cell cycle arrest/DNA repair or apoptosis in the DNA damage ...
AbstractThe tumor suppressor protein, p53, is part of the cell's emergency team that is called upon ...
The tumor suppressor p53 has become one of most investigated genes. Once activated by stress, p53 le...
The p53 tumour suppressor is best known for its canonical role as “guardian of the genome”, activati...
The tumor suppressor protein p53 plays a central role in the multiple response pathways activated by...
The tumor suppressor p53 has become one of most investigated genes. Once activated by stress, p53 le...
Cells defence against stresses that can cause DNA damage (single-strand breaks, double-strand breaks...
AbstractThe tumor suppressor p53 plays a key role in the cellular response to various stresses. Most...
Many biological networks respond to various inputs through a common signaling molecule that triggers...
Many biological networks respond to various inputs through a common signaling molecule that triggers...