In the field of cancer biology, numerous genes or proteins form extremely complex regulatory network. Many key tumor suppressors such as p53 are regulated through protein stability control, which determines cancer cell fate and cancer cell survival. It remains elusive how we could understand and target p53 stabilization process through network analysis of hundreds of molecules and signals, which are known involved in regulating p53 protein stability. In this presentation we discuss the use of random walk and stationary distribution to measure the compound effect of a network of genes or proteins. This method is applied to the network of nine proteins that influence the protein stability of p53 via regulating the interaction between p53 and ...
AbstractThe p53 protein interaction network is crucial in regulating the metazoan cell cycle and apo...
AbstractA kinetic model of a molecular control system for the cellular decision to proliferate or di...
With the advent of high-throughput biology, we now routinely scan cells and organisms at practically...
In the field of cancer biology, numerous genes or proteins form extremely complex regulatory network...
In the field of cancer biology, numerous genes or proteins form extremely complex regulatory network...
<div><p>We present a powerful experimental-computational technology for inferring network models tha...
Abstract: We present a computational approach for studying the effect of potential drug combinations...
A four-node network consisting of a negative circuit controlling a positive one is studied. It model...
New insights to understand the dynamics of enormous modifications during cancer in comparison to hea...
This work focuses on the use of network graph theory in biological networks. I explore how network g...
International audienceA central problem in the multi-omics era is to bridge the gap between genes/pr...
We present a powerful experimental-computational technology for inferring network models that predic...
Functional interpretation of genomic variation is critical to understanding human disease but it rem...
Background: The ever-increasing expanse of online bioinformatics data is enabling new ways to, not o...
We present a novel method for deriving network models from molecular profiles of perturbed cellular ...
AbstractThe p53 protein interaction network is crucial in regulating the metazoan cell cycle and apo...
AbstractA kinetic model of a molecular control system for the cellular decision to proliferate or di...
With the advent of high-throughput biology, we now routinely scan cells and organisms at practically...
In the field of cancer biology, numerous genes or proteins form extremely complex regulatory network...
In the field of cancer biology, numerous genes or proteins form extremely complex regulatory network...
<div><p>We present a powerful experimental-computational technology for inferring network models tha...
Abstract: We present a computational approach for studying the effect of potential drug combinations...
A four-node network consisting of a negative circuit controlling a positive one is studied. It model...
New insights to understand the dynamics of enormous modifications during cancer in comparison to hea...
This work focuses on the use of network graph theory in biological networks. I explore how network g...
International audienceA central problem in the multi-omics era is to bridge the gap between genes/pr...
We present a powerful experimental-computational technology for inferring network models that predic...
Functional interpretation of genomic variation is critical to understanding human disease but it rem...
Background: The ever-increasing expanse of online bioinformatics data is enabling new ways to, not o...
We present a novel method for deriving network models from molecular profiles of perturbed cellular ...
AbstractThe p53 protein interaction network is crucial in regulating the metazoan cell cycle and apo...
AbstractA kinetic model of a molecular control system for the cellular decision to proliferate or di...
With the advent of high-throughput biology, we now routinely scan cells and organisms at practically...