TY - JOUR
T1 - Computational methodologies for modelling, analysis and simulation of signalling networks
AU - Gilbert, David
AU - Fuss, Hendrik
AU - Gu, Xu
AU - Orton, Richard
AU - Robinson, Steve
AU - Vyshemirsky, Vladislav
AU - Kurth, Mary Jo
AU - Downes, Stephen
AU - Dubitzky, Werner
PY - 2006/12
Y1 - 2006/12
N2 - This article is a critical review of computational techniques used to model, analyse and simulate signalling networks. We propose a conceptual framework, and discuss the role of signalling networks in three major areas: signal transduction, cellular rhythms and cell-to-cell communication. In order to avoid an overly abstract and general discussion, we focus on three case studies in the areas of receptor signalling and kinase cascades, cell-cycle regulation and wound healing. We report on a variety of modelling techniques and associated tools, in addition to the traditional approach based on ordinary differential equations (ODEs), which provide a range of descriptive and analytical powers. As the field matures, we expect a wider uptake of these alternative approaches for several reasons, including the need to take into account low protein copy numbers and noise and the great complexity of cellular organisation. An advantage offered by many of these alternative techniques, which have their origins in computing science, is the ability to perform sophisticated model analysis which can better relate predicted behaviour and observations.
AB - This article is a critical review of computational techniques used to model, analyse and simulate signalling networks. We propose a conceptual framework, and discuss the role of signalling networks in three major areas: signal transduction, cellular rhythms and cell-to-cell communication. In order to avoid an overly abstract and general discussion, we focus on three case studies in the areas of receptor signalling and kinase cascades, cell-cycle regulation and wound healing. We report on a variety of modelling techniques and associated tools, in addition to the traditional approach based on ordinary differential equations (ODEs), which provide a range of descriptive and analytical powers. As the field matures, we expect a wider uptake of these alternative approaches for several reasons, including the need to take into account low protein copy numbers and noise and the great complexity of cellular organisation. An advantage offered by many of these alternative techniques, which have their origins in computing science, is the ability to perform sophisticated model analysis which can better relate predicted behaviour and observations.
U2 - 10.1093/bib/bbl043
DO - 10.1093/bib/bbl043
M3 - Article
SN - 1477-4054
VL - 7
SP - 339
EP - 353
JO - Briefings in Bioinformatics
JF - Briefings in Bioinformatics
IS - 4
ER -