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Genomics of Bacterium-Host Interactions: BIOMI/PLPA 6080 Lecturers: Alan Collmer, Dave Schneider, Steve Winans, Magdalen Lindeberg Syllabus for Fall 2010 9:05-9:55 MWF 9/27 – 10/25 336 Plant Science Building The genomics revolution began in 1995 with the determination of the first complete genomic sequence of a free-living organism, the pathogen Haemophilus influenzae, by The Institute for Genomic Research (TIGR). Interest in pathogens has continued to motivate genomics efforts, and knowledge gained through genomics has revolutionized our understanding of pathogenesis. These activities have combined to spawn the new discipline of "pathogenomics". In essence, pathogenomics involves identifying and characterizing the subset of genes in a pathogen that confer virulence, the "virulome". Because pathogen-host coevolution drives the development of multifactorial virulence systems featuring redundancy and system robustness, the seemingly simple mission of pathogenomics employs a powerful suite of bioinformatic tools and addresses major concepts in pathogenic microbiology. Thus, this course will introduce and employ tools for annotating, visualizing and aligning whole bacterial genomes, sequence similarity searches, protein family classification, and protein and RNA structure prediction. In addition, the course will address concepts such as the pan-genome, horizontal gene transfer, bacterial genome structure, and the "eco-evo" view of bacterium-host interactions. The course will draw examples from both animal and plant pathogens. Students will gain experience with key bioinformatic tools through a class project based on newly deposited, but unpublished Pseudomonas syringae genomes. Course Schedule Date 9/27 9/29 10/1 10/4 10/6 10/8 10/11 10/13 10/15 10/18 10/20 10/22 10/25 Topic Introduction to pathogenomics Genome annotation, visualization and alignment Classification and structure prediction for RNA and proteins Key experimental tools in pathogenomics Key structural features of pathogen genomes Introduction to bioinformatics project Fall Break Mechanisms of horizontal gene transfer and genome change Pathogenomic lessons from the Rhizobiaceae Pathogenomic lessons from the Enterobacteriaceae Pseudomonas aeruginosa and clinical applications Review of lessons in the context of systems biology Reports on bioinformatics project Presenter Collmer Schneider Schneider Collmer Collmer Lindeberg Winans Winans Winans Collmer Class and staff Class and staff