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Transcript
Transcriptome
Methylome
H3K4me1
H3K4me3
H3K9me3
Input
WGB-Seq
1
1
1
1
1
1
1
1
184-hTert-L9 – Cell Line
1
1
1
1
1
1
1
1
1
A549 – Lung
mRNA-Seq
H3K36me3
1
RNA-Seq
H3K27me3
Histone
H3K27ac
184-hTert-L2 – Cell Line
9
AG04449 – Stromal
1
AG04450 – Stromal
1
AG09309 – Stromal
1
AG09319 – Stromal
1
AG10803 – Stromal
1
Professor Jörn Walter of Saarland University is the
coordinator of DEEP. DEEP’s objective is to conduct
systematic analyses of the epigenetic causes of common
metabolic diseases such as fatty liver disease (steatosis),
obesity, and inflammatory diseases of the joints and the
intestine. Project researchers are tracking epigenetic
changes in select human cells and tissue samples. The
technologies developed for the efficient management of
data and bioinformatic analysis are providing the basis
for the disease-related analysis of the acquired datasets.
DEEP is a key BMBF pilot project in the fight against
major diseases. It will help to successfully integrate
Germany’s successful medical epigenome research into
a wider global research context.
DLR Project Management Agency, Health Research
Gesundheitsforschung
Heinrich-Konen Straße 1
53227 Bonn
Dr. Peter Südbeck
Phone: +49 228 3821 - 1216
E-mail: [email protected]
www.deutsches-epigenom-programm.de/en/home/
For more information:
9
The Data Grid offers a way to easily visualize available datasets. The
different complex datasets can be displayed by clicking on the coloured
cells. (Source: IHEC website)
Contact
www.gesundheitsforschung-bmbf.de
www.ihec-epigenomes.org
Impressum
Published by
Bundesministerium für Bildung und Forschung /
Federal Ministry of Education and Research (BMBF)
Division Development of Methods and Structures in the Life Sciences
11055 Berlin
Orders
In writing to
Publikationsversand der Bundesregierung
Postfach 48 10 09, 18132 Rostock Germany
E-mail: [email protected]
Internet: http://www.bmbf.de
or by
Phone: +49 30 18 272 272 1
Fax: +49 30 18 10 272 272 1
März 2015
Printed by
BMBF
Layout
W. Bertelsmann Verlag, Bielefeld; Christiane
Zay
Photo credits
cover: VadimGuzhva _ fotolia, https://www.ihec-epigenomes.org/
inside: TEK IMAGE_ sciencephotolibrary, isak55_thinkstock,
https://www.ihec-epigenomes.org/
Text
Dr. P. Südbeck, Dr. M. Leuer, U. Porwol, Projektträger im
DLR
This flyer is part of the public relations work of the Federal
Ministry of Education and Research; it is distributed free of charge
and is not intended for sale.
www.bmbf.de
Strategies for the fight
against major diseases
the International Human Epigenome Consortium
Strategies for the fight against major diseases –
the International Human Epigenome Consortium
Cardiovascular diseases, cancer, or neurodegenerative
diseases affect people everywhere in the world – and the
number of patients is on the steady rise. The only way to
curb this trend is through improved disease prevention
and control strategies. This requires an in-depth knowl­
edge about the origins of major diseases. The International
Human Epigenome Consortium (IHEC) conducts system­
atic research on the molecular causes of these diseases. This
major international biomedical research project brings
together hundreds of prestigious researchers from different
countries in the European Union, Japan, South Korea,
Canada and the USA. The Federal Ministry of Education
and Research (BMBF) provides €20 million in funding for
Germany’s participation in IHEC.
Regulome
Methylome
278
Other
348
Transcriptome
5.306
datasets
846
942
TFBS: transcription
factor binding sites
Current number of datasets by assay category
(Source: IHEC website)
2.699
Histone
discrimination is only possible with sophisticated regulation
of the cellular gene activity. The word “epigenome” is a broad
term for all the mechanisms which specifically control the
gene activity in a given cell type. Accordingly, the epigenome
of a diseased cell is different to that of a healthy cell.
Strategy – Focussing on misregulation in the cell
Challenge: mapping the molecular causes of major diseases
Errors in the human genome are the frequent cause for
major diseases. Mutations, small changes which concern the
sequence of the four building blocks of DNA, have long been
known to trigger diseases. However, recent research results
have shown that external factors such as nutrition, stress and
pollutant exposure, as well as ageing processes can leave mo­
lecular fingerprints on the DNA of human cells. Such changes
may affect gene activity. Misregulation due to false signals in
the cells can result in the outbreak of disease. These irregular­
ities are very significant in the context of major diseases. This
is a highly complex area which research must consider from a
number of different perspectives. Researchers have therefore
stepped up efforts to investigate the factors, mechanisms
and correlations which regulate gene activity in the human
genome.
Epigenome – the levels of cell regulation
Every cell in the human body normally contains the same
genetic information, yet the more than 200 different types of
cells perform different functions. For example, the metabolic
processes in a liver cell are different than in a blood cell. A
hair cell has tasks and a structure that are distinct from the
nerve cell. These differences emerge because the information
in the genome is retrieved specifically for every cell type. A
IHEC is drawing up a comprehensive catalogue of epigenetic
changes in human cell types which are associated with major
diseases. This can only be accomplished by pooling experi­
mental resources and expertise. Vast amounts of data must be
recorded, stored and analyzed to compile the epigenetic cat­
alogue. All of the researchers in the consortium apply state­
of-the-art high-throughput technologies which enable the
recording of many large datasets at a time. Data is examined
with a view to the interactions of certain molecules in genes
and their influence on the regulation of gene activity.
The programme aim is to make a total of 1,000 human
epigenome maps available as reference data for future
research. Based on comparative analyses of biological ma­
terials from both healthy and diseased patients, including
blood or tissue samples, the researchers hope to gain crit­
ical knowledge about the origin and course of major diseas­
es. Ten research groups in IHEC are currently focussing on
the most widespread major diseases.
Objective – individualized medicine for major diseases
Epigenetic testing has not been common in clinical prac­
tice up to now. The outcome of IHEC aims at changing this
situation in the medium-term. All of the research net­
works in IHEC have therefore defined common standards
and quality benchmarks for every working step. This is a
monumental task which enables efficient and sustainable
international research in the first place. The collected data
will be stored centrally and in uniform format. The datasets
on epigenetic changes provide the basis for all subsequent
functional analyses.
IHEC members at an expert meeting in Berlin
(Source: IHEC website)
The results of IHEC will be made accessible to other
research groups to encourage and promote medical
epigenomic research. Epigenetic maps will enable earlier
and more precise diagnoses and improve treatments.
In future, epigenomic analysis will become a standard
element of individualized medicine, granting every indi­
vidual optimized and tailor-made treatment.
Germany’s contribution – cooperation at many levels
The BMBF provides funding within IHEC for the in­
terdisciplinary research network “German epigenome
programme – DEEP”. The programme’s various projects
are located throughout Germany at different research
institutions. The research and funding concept “e:Med:
Paving the Way for Systems Medicine” provides the stra­
tegic framework of the BMBF research funding.
www.gesundheitsforschung-bmbf.de/de/4661.php