Title: Biobanks in Translational Cancer Research
1- Biobanks in Translational Cancer Research
Julio E. Celis Danish Centre for Translational
Breast Cancer Research (DCTB) Danish Cancer
Society
2Mission
- To support and conduct research for the benefit
of the patient
3 Developments that Placed Biobanks at the Centre
of Cancer Research
- The sequencing of the human genome and the
explosion of new high-throughput technologies
(Omics) -
- Cancer research is slowly shifting from the study
of cell lines to the analysis of clinically
relevant samples (tissues and biofluids) - The advent of dicovery-driven translational
research
4Translational Cancer Research
- Scientific, technology and science policy issues
5 Stakeholdersin Translational Research
Ethical, legal, and social issues
Society
Biobanks rDNA repositories Antibody
collections Genomic databases
Basic scientists Clinicians Epidemiologists
IP issues
Infrastructures
Industry
National versus European programmes Long-term
funding Sustainability
Science policy makers Funding agencies
6We need a vision for cancer research in Europe in
order to move from a reactive to a pro-active
position
7EUROCANPLUS
- EurocanPlus will define excisting needs as well
as barriers to collaboration in cancer research - It will be the largest consultation in cancer
conducted in the EU and will involve all the
stakeholders - It will provide a Forum for consultation with the
scientific community and the industry - It will identify areas where lack of coordination
and funding is detrimental for progress
8- Biobanks from the Perspectives of
Discovery-driven Translational Breast Cancer
Research (DCTB)
9DCTB A Multidisciplinary Approach to Breast
Cancer Research
Genomics, transcriptomics, proteomics
Fund raising Marketing, Communication
Institute of Cancer Biology Cell
cycle Apoptosis Invasion and metastasis Anti-estro
gens Genetics and immunology Proteomics in cancer
Surgeons, oncologists, pathologists
Industry collaboration
DBCG-Biobank, Clinical inform.
10Aims
- Biomarkers for early detection
- Identification of pre-malignant lesions
(chemoprevention) - Biomarkers for patient estratification and
response to treatment
Discovery on prospective samples and validation
on archival material fro patients with a
long-tem follow up
11Application of multiple omic platforms to the
analysis of fresh tissue samples obtained from
the same patient
12Integration of Biological and Clinical Data In
Relational Databases
13Near Fluids
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14 Biobanks Science and Technology Issues
- Type of samples (tissues, fluids, nucleic acids,
proteins, tissue arrays) - Sample collection, handling, storage, and
distribution - Choice of core technologies and standardization
of sample preparation. - Flexibility to accommodate technology
developments - Reference pathology and pathological quality
control - Bioinformatics. Database development and datasets
15Flow of Genetic Information
- DNA (Genomics)
- mRNAs (Transcriptomics)
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Proteins (Proteomics)
System Biology
16Technologies and Resources
Gel-based (2D PAGE) proteomics in combination
with MS
Non-gel based proteomics (LC/MS/MS)
Bioinformatics
Tissue arrays
Protein and antibody chips
Technologies and Resources
Protein/ macromolecule interactions
Genomics mutations, methylation analysis, CGH,
genotyping
Transcriptomics cDNA arrays
17Sample Preparation for Proteomics
18 Biobanks Other Issues
- Ethical and legal issue for sharing specimens
- Access and priorities
- Relation with other infrastructures (antibody and
rDNA repositories) - Funding and substainability
19Conclusions
- Europe has found a niche in Biobanks, and must
take the lead as these resources are not
available at the same level in other parts of the
world - We must make biobanks a political object
- We must colaborate with the industry, as their
competitiveness depends on the access to these
infrastructures - Danish Cancer Society, The Danish Medical
ResearchCouncil, Novo, The John and Birthe Meyer
Foundation, The European Union