AIC Seminar Series
Ontologies for representing, integrating and analyzing phenotypes
Notice: Hosted by Vinay Chaudhri
Date: Tuesday June 21, 2011 at 16:00
Location: EJ228 (SRI E building) (Directions)
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The development and application of high-throughput technologies in
biology leads to a rapid increase of data and knowledge and enables the
possibility for a paradigm shift towards the personalized treatment of
disease based on an individual patientÂ’s genetic markup. Major
challenges that biology faces today are to integrate data across
different databases, domains, levels of granularity and species, and to
make the information resulting from high-throughput experiments amenable
to scientific analyses and the discovery of mechanisms underlying
disease.
In my talk, I will demonstrate how formal ontologies combined with
recent progress in automated reasoning can be used to represent,
integrate and analyze data resulting from high-throughput phenotyping
experiments. I will show how an expressive formal representation of
phenotype ontologies can lead to interoperability with biomedical
ontologies of other domains, illustrate an ontology modularization
approach that enables the use of automated reasoning over these
ontologies and show how to integrate phenotype data across multiple
species. Finally, I will demonstrate how measures of semantic
similarity can be applied to analyze high-throughput phenotype data and
reveal novel gene-disease associations and discuss how an ontology-based
approach to the semantic integration of data in biomedicine can
facilitate translational research and personalized medicine.
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Robert Hoehndorf is a research associate at the University of Cambridge
and has more than 6 years experience in working with foundation
ontologies and applying ontologies to data integration and
interoperability in biology and biomedicine. His prime research
interests include foundational ontologies and applications of expressive
formal ontologies in bioinformatics, with a particular focus on
large-scale semantic integration and the prediction of genetic diseases
and phenotypes. Robert has more than 30 publications relating to
biomedical ontologies and the use of knowledge representation and
reasoning for data and knowledge integration.
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