Clinical OMICs - Issue 5 - (Page 7)
Memorial Sloan Kettering Receives
$100M Gift toward Precision Oncology Center
Business Wire
W
Memorial Sloan Kettering Cancer Center's
physician-in-chief José Baselga, M.D. (left),
with Marie-Josée Kravis, chair of the board
of the Sloan Kettering Institute (center)
and Henry R. Kravis, investor and philanthropist (right).
ith a little help from Sloan Kettering Institute chair Marie-Josée
Kravis and her husband, philanthropist Henry R. Kravis, the Memorial
Sloan Kettering Cancer Center (MSK)
is launching a new program that it
says will reshape clinical trials and
speed up translation of molecular discoveries into routine clinical practice.
Dubbed the Marie-Josée and Henry
R. Kravis Center for Molecular Oncology (CMO), the new center will support development of individualized
cancer therapies and diagnostics. The
couple donated $100 million toward
its founding.
The CMO, according to MSK, will
include around 20 labs and support
over 100 MSK faculty and staff. It will
also contain two next-generation
sequencing (NGS) facilities, one of
which will sequence patient samples
in real time, while the other focuses
on discovering new genetic alterations and therapeutic targets. MSK
says new lab space is currently under
construction, and it is buying new
(continued on p. 24)
Warring with Cancer Avatars to Expose
Unique Vulnerabilities of Real Tumors
www.clinicalomics.com
kind of Jekyll-to-Hyde transformation. At first, the virtual cell has the
internal workings of a normal, healthy
cell. Then, the virtual healthy cell can
be made cancerous. Indeed, it can be
turned into any kind of cancer cell by
distorting specific points and pathways in the system.
These cellular distortions represent a person's cancer avatar. Once
the avatar is generated, a computer
model predicts which drugs, based
upon their known functions, are most
likely to kill a real cancer cell.
This approach to tumor modeling
has been developed by researchers at
the University of California, San Diego
School of Medicine and Moores Cancer Center. They generated cancer avatars for cells obtained from patients
with glioblastoma, a highly aggressive
© Juan Gärtner-Fotolia.com
C
ancer avatars, much like avatars in
video and computer games, may
become dynamic characters, not just
collections of visual features. If cancer
avatars are developed on the basis of
genomic profiles, they can reflect the
signaling and metabolic complexities
of real cancers. What's more, a cancer
avatar, set loose in a virtual world-
call it TumorSpace-may interact
with different adversaries-drugs,
say-and experience different fates.
A crushing defeat would be cause for
celebration, for playing with a cancer
avatar is more than a game. It could
reveal which drugs would be most
effective in helping real patients.
Researchers fully aware of how
computer simulations may inform
personalized medicine have developed a virtual cell that achieves a
Once an avatar is generated, a computer
model predicts which drugs, based upon
their known functions, are most likely to
kill a real cancer cell.
cancer of the brain's glial cells. After
generating predictions of which drugs
would be most effective, the researchers "truth checked" their predictions
against standard, cultured cells in
drug-sensitivity experiments.
The researchers published their
work May 21 in the Journal of Translational Medicine, in an article entitled "In silico modeling predicts drug
(continued on p. 27)
June 12, 2014 Clinical OMICs
7
http://www.clinicalomics.com
Table of Contents for the Digital Edition of Clinical OMICs - Issue 5
Contents
Clinical OMICs - Issue 5
https://www.nxtbook.com/nxtbooks/gen/clinical_omics_vol3iss9
https://www.nxtbook.com/nxtbooks/gen/clinical_omics_vol3iss8
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