Modeling Biological Networks
IV.1 Coordinators
IV.2 Participants
IV.3 Introduction
IV.4 Background and Significance
IV.5 Research Plan IV.6 Specific Subprojects
IV.7 Connection to Specific Projects 2 (cytoskeleton) and 3 (organogenesis)
IV.8 Timeline
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IV.5 RESEARCH PLAN:
The proposed research merges two truly interdisciplinary efforts: (i) The ongoing well-established collaboration among theoretical physicists with experience in characterizing the structure and dynamics of complex networks; biophysicists with experience in studying the dynamics of cytoskeleton formation and reaction-diffusion processes; cell biologists with experience in studying the topology of metabolic and regulatory networks; computer scientists with expertise in clustering algorithms, graph theory, and algorithm complexity; and applied mathematicians with experience in reaction-diffusion equations and stochastic dynamical systems as well as topological characterization of networks; and (ii) the emerging collaboration among biologists who study developmental phenomena using genetics, comparative embryology, and functional genomics; bioinformaticists with expertise in high throughput searches and data-mining; and applied mathematicians with well-established interests in the analysis of complex patterns in biology and linguistics.
IV.5.i Specific Subprojects:
We structure our modeling effort into the following Specific Subprojects:- Subproject 1 - Topological analysis of selected metabolic and regulatory networks to uncover and model their large-scale structure.
- Subproject 2 - Topology of signaling protein networks and the cytoskeleton.
- Subproject 3 - Regulatory words in eukaryotic genomes.
- Subproject 4 - Modeling the regulation and function of metabolism.
- Subproject 5 - Gene complexes in the evolution of development.
- Subproject 6 - Transcription factor responses and regulatory networks in Drosophila development.
- Subproject 7 - Identification and characterization of transcriptional networks in early cardiovascular development