EECS 600: Systems Biology & Bioinformatics, Fall 2008
Department of Electrical Engineering & Computer Science
Case Western Reserve University
 

Schedule & Readings

  1. Introduction to Molecular & Systems Biology (Thu, 8/28)
    Life, cell, genes, DNA, RNA, proteins, structure, function, evolution, cellular signaling, metabolism, genetic regulation, organization and dynamics, modularity.

  2. DNA Microarrays (Tue, 9/2)
    DNA microarray technology, oligonucleotide arrays, cDNA arrays, normalization and transformation of micorarray data.

  3. Analysis of Gene Expression Data (Thu, 9/4; Thur, 9/11; Mon 9/15)
    Pattern discovery, clustering, biclustering, SVD, differential gene expression, classification, functional annotation, gene selection. Discussion Papers:

  4. Cellular Signaling & Genetic Regulation (Tue, 9/23)
    Signal transduction, control layer of the cell, combinatorics of cellular signaling, regulation of gene expression, regulatory network inference. Discussion paper:

  5. Metabolic Networks (Thu, 9/25; Thu, 10/2)
    Metabolism, enzymes, representation of metabolic processes, pathway databases, stoichiometrics, flux analysis. Discussion paper:

  6. Protein Interaction Networks (Thu, 10/2; Thu, 10/9; Tue 10/14)
    Protein-protein interactions, high-throughput screening of protein interactions (Y2H, TAP), computational prediction of protein interactions, domain-domain interactions.
  7. Discussion paper:
  8. Topological Properties of Molecular Networks (Tue 10/23)
    Degree distribution, clustering coefficient, scale-free networks, hierarchy, modularity, topological motifs, robustness. Discussion paper:

  9. Computational Analysis of Molecular Networks (Thu, 10/30; Thu, 11/6)
    Reconstructing signaling networks, identification of functional modules, network clustering, modular decomposition of networks, identification of signaling pathways. Discussion Paper:

  10. Dynamics of Molecular Networks, Phenotype, and Disease (Tue, 11/11)
    Temporal and spatial variability in networks, manifestation of genetic interactions in molecular networks, network assisted identification of disease genes, network based analysis of differential expression, proteomics, integration of omics datasets. Discussion Papers:
    1. R. Kelley and T. Ideker, Systematic interpretation of genetic interactions using protein networks, Nature Biotechnology, 2005.
      Presented by: Elizabeth Rodkey (Thu, 11/13)
    2. L. M. F. de Godoy et al. Comprehensive mass-spectrometry-based proteome quantification of haploid versus diploid yeast, Nature, 2008.
      Presented by: Michael Schnetz (Thu, 11/20)
    3. H.-Y. Chuang, E. Lee, Y.-T. Liu, D. Lee, and T. Ideker, Network-based classification of breast cancer metastasis, Molecular Systems Biology, 2007.
    4. J. Watkinson, X. Wang, T. Zheng, and D. Anastassiou, Identification of gene interactions associated with disease from gene expression data using synergy networks, BMC Systems Biology, 2008.

  11. Systems Biology of Memory
    Discussion papers:
    1. M. Costa-Mattioli, Switching memories on and off, Science, 2008.
    2. A. D. Wagner, Building memories: Remembering and forgetting of verbal experiences as predicted by brain activity, Science, 2008.
    3. Presented by: Ching-Yi Wu (Tue, 11/25)

Class Meeting

TTh 2:45pm-4:00pm, NORD 204

Office Hours

TTh 1:30pm-2:30pm, OLIN 512

Instructor

Mehmet Koyuturk

Description

Bioinformatics is the science of making sense of biological information. In the post-genomic era, algorithmic and computational methods for organizing, integrating, analyzing, and querying biological data prove invaluable. Today, availability of high-throughput data relating to the interactions between biomolecules, coupled with past accomplishments in molecular biology, make it possible to study the cell at the systems level, commonly through network models. In this course, we cover cutting-edge algorithmic, analytical, and statistical techniques used to effectively analyze these novel sources of biological data. This semester, the main theme of the course will be "molecular networks in disease".