Download Abstract - Anil Jegga - Cincinnati Children`s Hospital

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Transcript
Integrative Genomics in Understanding Disease Process
Anil Jegga, DVM, MS
Assistant Professor
Division of Biomedical Informatics, Cincinnati Children’s Hospital Medical Center
Department of Pediatrics, University of Cincinnati College of Medicine
Cincinnati, Ohio 45229 USA
Traditional approaches to identify or analyze candidate disease genes are
usually done in the laboratory in a laborious process of experimental elimination.
However, with the advent of the Human Genome Project and its major
contribution to the understanding of genetic level implications to the human
health, several new avenues have opened up to apply in silico approaches. The
fulcrum of these bioinformatics approaches is an effective integration and
analysis of genetic information, gene expression data, gene regulatory networks,
protein-protein interactions, gene structure variation, genome-phenome relations
and homologs with clinical information. This integration of the massive amounts
of accumulating heterogeneous genetic information in the clinical environment is
expected to support tailor-made medicine, where clinical diagnosis and
treatments will be supported by information at molecular level. The inherent
problem for such data integration is lack of widely-accepted standards for
expressing the syntax and semantics of the data present in various
heterogeneous biomedical databases. In the first part of the current presentation,
I will discuss some of these issues, possible solutions, and computational
approaches we are developing. In the second part, using Alzheimer's disease as
a case study, I'll present some of our preliminary results, and discuss potential
interpretations and significance of systems biology-based integrative genomics
approaches to understand neurodegenerative disease processes further.