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2015 AGTA<br />
Conference<br />
often fails to establish a feasible list of follow-up<br />
candidates. Gene prioritisation methods<br />
promise to identify the most interesting<br />
mutations located in genes using computational<br />
methods, which are ideally applied to<br />
tissue-specific genomic data. Unfortunately,<br />
results from these methods are not usually<br />
readily available to clinicians, as the generation<br />
of such methods, and often their interpretation,<br />
requires trained bioinformaticians.<br />
We have developed an intuitive web-tool for<br />
gene prioritisation in neurological disorders:<br />
brain-coX.<br />
brain-coX incorporates and combines six<br />
large datasets on gene expression in the<br />
developing and ageing human brain. These<br />
datasets are adaptively cleaned of unwanted<br />
variation, maximising information for the<br />
disease of interest. In addition to gene prioritisation<br />
brain-coX’s functionality includes<br />
extensive network visualization options as<br />
well as interactive analysis tools to explore<br />
changes in the gene-gene network along<br />
brain development. In the future, we hope<br />
to extend brain-coX offering interactive tools<br />
that visualize differences between brain<br />
regions.<br />
Currently, our clinical collaborators and we<br />
are extensively testing brain-coX to prioritize<br />
candidate genes for patients with childhood<br />
epilepsies. We find that the use of brain-coX<br />
not only empowers clinicians and biologists<br />
with no programming or significant statistical<br />
knowledge, but also leads to better communication<br />
between collaborators.<br />
brain-coX is available via shiny.bioinf.wehi.<br />
edu.au/freytag.s<br />
SESSION 6<br />
GENOMICS OF PLANTS AND<br />
FINE WINE<br />
Chaired by Professor Justin Borevitz and<br />
Dr Rose Andrew<br />
1515-1555<br />
ORIGIN AND CONSEQUENCES OF<br />
GENETIC AND EPIGENETIC VARIATION<br />
IN ARABIDOPSIS THALIANA AND ITS<br />
RELATIVES<br />
PROFESSOR DETLEF WEIGEL<br />
Max Planck Institute for Developmental<br />
Biology, Germany<br />
BIOGRAPHY<br />
Detlef Weigel is a German-American<br />
scientist. He studied biology and chemistry<br />
in Bielefeld and Cologne, and received<br />
a PhD from the University in Tübingen in<br />
1988. For his postdoctoral work at Caltech,<br />
he switched from Drosophila to plants. He<br />
joined the faculty of the Salk Institute in La<br />
Jolla in 1993, and has been a director at<br />
the Max Planck Institute for Developmental<br />
Biology since 2002. The work of Detlef<br />
and his group has been recognized by<br />
several awards, including the Gottfried<br />
Wilhelm Leibniz Award of the Deutsche<br />
Forschungsgemeinschaft. He is a member<br />
of the US National Academy of Sciences,<br />
the German National Academy of Sciences<br />
Leopoldina and the Royal Society.<br />
The first major finding from the Weigel lab<br />
was that a gene from Arabidopsis thaliana<br />
could dramatically accelerate the flowering<br />
of trees; this established a proof of concept<br />
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