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Modeling of signaling networks

โœ Scribed by Susana R. Neves; Ravi Iyengar


Publisher
John Wiley and Sons
Year
2002
Tongue
English
Weight
211 KB
Volume
24
Category
Article
ISSN
0265-9247

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โœฆ Synopsis


Abstract

Biochemical networks, including those containing signaling pathways, display a wide range of regulatory properties. These include the ability to propagate information across different time scales and to function as switches and oscillators. The mechanisms underlying these complex behaviors involve many interacting components and cannot be understood by experiments alone. The development of computational models and the integration of these models with experiments provide valuable insight into these complex systemsโ€level behaviors. Here we review current approaches to the development of computational models of biochemical networks and describe the insights gained from models that integrate experimental data, using three examples that deal with ultrasensitivity, flexible bistability and oscillatory behavior. These types of complex behavior from relatively simple networks highlight the necessity of using theoretical approaches in understanding higher order biological functions. BioEssays 24:1110โ€“1117, 2002. ยฉ 2002 Wileyโ€Periodicals, Inc.


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