The phosphorylation of the heat shock factor as a modulator for the heat shock response (2011)
AUTHORS:
Czeizler Eugen
,
Rogojin Vladimir,
Petre Ion
BOOKTITLE:
CMSB'11 9th International Conference on Computational Methods in Systems Biology Paris, France — September 21 - 23, 2011
PAGES:
9--23
URL:
http://dx.doi.org/10.1145/2037509.2037513
INTERNALPDF:
internalpdf/hsrph.pdf
@inproceedings{ CzRP11, editor = "Fages, Fran\c{c}ois", author = "Czeizler, Eugen and Rogojin, Vladimir and Petre, Ion", volume = "", responsibleauthor = "Czeizler, Eugen", language = "eng", title = "The phosphorylation of the heat shock factor as a modulator for the heat shock response", url = "http://dx.doi.org/10.1145/2037509.2037513", series = "", booktitle = "CMSB'11 9th International Conference on Computational Methods in Systems Biology Paris, France — September 21 - 23, 2011", publisher = "ACM", corerank = "", abstract = "The heat shock response is a well conserved defence mechanism against the accumulation of misfolded proteins due to prolonged elevated heat. The cell responds to heat shock by raising the levels of heat shock proteins (hsp), which are responsible for chaperoning protein refolding. The synthesis of hsp is highly regulated at the transcription level by specific heat shock (transcription) factors (hsf). One of the regulation mechanisms is the phosphorylation of hsf's. Experimental evidence shows a connection between the hyper-phosphorylation of hsf's and the transactivation of the hsp-encoding genes. In this paper we incorporate several (de)phosphorylation pathways into an existing well validated computational model of the heat shock response. We analyze the quantitative control of each of these pathways over the entire process. For each of these pathways we create detailed computational models which we subject to parameter estimation in order to fit them to existing experimental data. In particular, we find conclusive evidence supporting only one of the analyzed pathways. Also, we corroborate our results with a sequent set of computational models, of a more reduced size.", note = "", internalpdf = "hsrph.pdf", flags = "public HIIT", il = "no", year = "2011", keywords = "computational modeling, the heat shock response, phosphorylation", unitcode = "T306=99, T312=1", impactfactor = "A4", pages = "9--23", address = "New York" }