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A National and International Imperative to Eliminate the Cancer Burden . Canada138,000 / 66,000. United States of America1.4M / 566,000. Australia86,000 / 37,000. China2.2M / 1.6M. Austria37,000 / 19,000. France269,000 / 149,000. Germany408,000 / 218,000. . . Switzerland35,000 / 17,000. . .
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1. The Cancer Genome Atlas and The Future of Personalized Medicine BIO IT Coalition ConferenceMay 4, 2006
Anna D. Barker, Ph.D.Deputy Director, National Cancer Institute
3. The Human and Economic Burden of Cancer 570,280 Americans will die of cancer this year
1,372,910 Americans will hear the words “you have cancer…” this year
$189 billion per year on healthcare costs – for cancer alone Reference note:
Top two bullets are from ACS 2005 Cancer Facts and Figures
Chart is from 2003 National Center for Health StatisticsReference note:
Top two bullets are from ACS 2005 Cancer Facts and Figures
Chart is from 2003 National Center for Health Statistics
4. Cancer’s Reach Men have an almost 1 in 2 lifetime risk of developing cancer.
5. Current Healthcare System: Reactive Focus on treatment, at the expense of prevention, results in:
Significant unnecessary cost – for expensive, acute care
Significant burden on healthcare system – especially in low-income communities
Significant pain, suffering, and death for patients and their families
Individual and national wealth and healthcare spending do not reduce these problems
Rates of diabetes, hypertension, heart disease, myocardial infarction, stroke, lung disease, and cancer are higher in United States than other nation, even among wealthiest populations
JAMA®
Journal of the American Medical Association; 2006;295:2037-2045
May 3, 2006
6.
The Shift to 21st Century Personalized Medicine
7. Convergence: Molecular Biology, Advanced Technologies, Bioinformatics/Broadband
8. What is a Genomic Alteration?
10. Data Generation: Unprecedented Scale
11. Bioinformatics: The Cancer Bioinformatics Grid (CaBIG) Piloted in cancer centers
System, common software and systems
Standards based
Open source – “plug and play”
common language– (e.g, clinical trials; biospecimens; genomic and clinical data )
Capability to integrate genomics, proteomics, animal models, etc. with clinical data
Broad capability to connect – all sectors
Can provide support for electronic medical record
Integrated with FDA’s clinical trials reporting systems
12. Standards
13. Proof of Concept: Setting the Stage for The Cancer Genome Atlas
14. The Human Genome Project Changed Everything HGP Resulted In:
Understanding of genomic alteration and disease
Sequencing of many genes
Development of advanced genomics analysis technologies
15. Gleevec: 50 Years From Discovery to Delivery Unfortunately, Gleevec took 50 years to develop. We hope that what we learn from TCGA will speed development of other cancer therapeutics.Unfortunately, Gleevec took 50 years to develop. We hope that what we learn from TCGA will speed development of other cancer therapeutics.
16. 1st Generation Personalized Medicine Is Underway Clinical applications now include:
Selection of breast cancer patients for optimal therapy
Prevention of drug toxicity in the treatment of colorectal cancer and acute lymphoblastic leukemia
Identification of individuals with high risk of breast cancer or melanoma for increased surveillance and preventive treatment
FDA is committed to advancing molecular medicine – The Critical Path
Over 100 IND submissions to FDA contain pharmacogenomic data
Pharmacogenomic data is being used to “rescue” drugs in clinical trials
Major insurers (e.g., Blue Cross/Blue Shield and United Healthcare) are conducting cost-benefit studies for specific pharmacogenomic tests
17. TCGA Pilot Project
18. Critical Importance of the TCGA? TCGA is among the first efforts to systematically use data generated by the Human Genome Project to better understand a specific disease — cancer.
An “atlas” of genomic alterations associated with major types of cancer could enable new scientific discoveries.
Scientific discoveries arising from TCGA data may translate into:
New targets for cancer therapeutics
Ability to more specifically assign patients within clinical trials
Assessment of risk for specific cancers
19. What is TCGA? The Cancer Genome Atlas (TCGA) is a 3-year, $100 million pilot project of the National Cancer Institute (NCI) and the National Human Genome Research Institute (NHGRI).
TCGA Mission: Increase scientific understanding of the molecular basis of cancer and apply this information to improve our ability to diagnose, treat, and prevent cancer.
TCGA Purpose: Determine the feasibility of a full-scale project to develop a complete “atlas” of all genomic alterations involved in cancer.
20. Project Development History
21. Broad Interest and Support Positive response from scientific community, business community, and the public. The National Cancer Institute and the National Human Genome Research Institute launched The Cancer Genome Atlas pilot project in December 2005. The idea met with a great deal of interest from the public and the media, as well as the scientific community and those who are focusing on finding better cancer diagnostics and treatments.The National Cancer Institute and the National Human Genome Research Institute launched The Cancer Genome Atlas pilot project in December 2005. The idea met with a great deal of interest from the public and the media, as well as the scientific community and those who are focusing on finding better cancer diagnostics and treatments.
22. How TCGA Will Function
23. Verify authenticity and perform the pathologic QC of qualified tumors from existing collections
Perform central processing of specimens
Develop and monitor the standard operating procedures for prospective specimen collection
Track all specimen-related operations (consent, acquisition, transport, processing, QC, distribution) through caBIG™
Provide samples for technology platform comparisons
Distribute materials Biospecimen Core Resource
24. Genome characterization
Expression profiling
Copy number changes
Epigenomics
Improve existing technologies
Epigenomics to meet required throughput rate
Copy number detection and expression profiling for characterizing small amounts of biological samples
Real-time data release into public database
CGCCs RFA:
Mechanism: U24 (cooperative agreement) Cancer Genome Characterization Centers (CGCCs)
25. High-throughput Genome Sequencing Centers (NHGRI)
Sequence large number of targets from at least 2 tumor types
Develop and integrate sequencing technologies
Genome Sequencing Centers RFA:
Mechanism: U54 (cooperative agreement)
Genome Sequencing Centers
26. caBIG™ principles: open source, open access, open development
Common, widely distributed infrastructure allows research community to focus on discovery
Infrastructure:
Data management
Database development
Specific analytic tools
Inter-program communication caBIG-Based Bioinformatics Core Community driven
Information was gathered from members of the cancer community across the country, spanning Discovery to Development to Delivery
Hundreds of potential users at academic institutions and NCI Cancer Centers (researchers and clinicians) identified priorities and set the framework
Open development
All participants can develop tools, as long as they are shared
Existing resources are applied and advanced whenever possible, rather than inventing tools “de novo” in every case
Open access
ALL caBIG™ resources are freely obtainable by the cancer community to ensure the full access and to maximize collaboration
Community driven
Information was gathered from members of the cancer community across the country, spanning Discovery to Development to Delivery
Hundreds of potential users at academic institutions and NCI Cancer Centers (researchers and clinicians) identified priorities and set the framework
Open development
All participants can develop tools, as long as they are shared
Existing resources are applied and advanced whenever possible, rather than inventing tools “de novo” in every case
Open access
ALL caBIG™ resources are freely obtainable by the cancer community to ensure the full access and to maximize collaboration
27. Technology Development Opportunities For Technology Development
Genomic rearrangement, epigenetic assays
Highly parallel single molecule assays
Method for selecting/enriching defined regions of genome
Magnitude improvement in cost, throughput, accuracy, and precision
Technology Development RFA
Mechanisms: SBIR/STTR; R21 (exploratory/development)
28. TCGA: Next Steps
29. TCGA Milestones for 2006
30. TCGA Pilot Project Milestones
31. How Will TCGA Decide Which Tumors to Study First? Criteria:
The tumor samples are derived from patients entered in a clinical trial with:
Uniform entry criteria
Consistent treatment
Clinical data that has undergone regular audits
Samples represent a single type of tumor and/or (if a solid tumor) derived from a single cancer site (e.g. brain, breast, lung, etc.)
Tumors are from a primary tumor site
Samples are properly consented for use in this project
32. How Will TCGA Decide Which Tumors to Study First? Criteria continued:
There must be a sufficient amount of each tumor sample to conduct the necessary analysis
Tumor samples have been obtained and stored in a manner that meets the technical requirements of TCGA
At least 500 individual samples from unique cancer cases are available
All tumors samples have matched normal samples
Individual tumor samples should contain at least 80% tumor cells
33. Success Factors for TCGA By end of the 3-year pilot project, we hope to have:
Completion of genomic analysis of two tumors, leading to identification of new genes involved in cancer
Ability to find specific genomic alterations in the genes associated with cancer
Ability to differentiate tumor subtypes based on genomic alterations
Establishment of a genomics database that scientists can access
Ability to translate genomic information into positive clinical outcomes
35. Vision: 21st Century Personalized Medicine Lottery v certainty
This is our new model and there are major trends shaping it
Instead of relying on a description of a disease we will have certainty about the molecular characteristics of the disease
Instead of empirical intervention we’ll have rationale intervention directed by the better understanding of the disease
Instead of treating all people as uniform we’ll begin to treat as individuals
Instead of practising “reactive” medicine, we’ll practise “pro-active disease management” based on risk assessment, in short information based targeted care
The days of exploratory operations have gone; the days of the average medicine being prescribed to everyone is no longer going to be acceptable
This is a long journey and let me touch on how Amersham started on this journey 14 years ago
Lottery v certainty
This is our new model and there are major trends shaping it
Instead of relying on a description of a disease we will have certainty about the molecular characteristics of the disease
Instead of empirical intervention we’ll have rationale intervention directed by the better understanding of the disease
Instead of treating all people as uniform we’ll begin to treat as individuals
Instead of practising “reactive” medicine, we’ll practise “pro-active disease management” based on risk assessment, in short information based targeted care
The days of exploratory operations have gone; the days of the average medicine being prescribed to everyone is no longer going to be acceptable
This is a long journey and let me touch on how Amersham started on this journey 14 years ago
36. TCGA is an Important Step Toward Personalized Medicine – But Barriers remain Lack of technology standards (genomics, informatics, emerging technologies)
Lack of common technology platforms to enable the sharing of information and transfer to clinical application
Lack of common reagents and highly qualified public data sets
Inability to manage and interpret large quantities of pre-processed data
Disconnect in developing tools needed for assessing the science in the development process – Led to the FDA’s Critical Path
Lack of a coordinated, integrated system
Lack of common vocabularies
Need for new funding mechanisms to facilitate data sharing and collaboration
Need for new clinical trials design models
Existence of cultural barriers
No sector can meet all of these challenges
37. Personalized Medicine Is Transforming Discovery/Development/Delivery
38. How To Stay Involved in TCGA Updates on TCGA website: http://cancergenome.nih.gov
Updates in the NCI Cancer Bulletin: www.cancer.gov
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