Targeting Cancer: an Interview with Tyler Jacks
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Unrestricted Immigration and the Foreign Dominance Of
Unrestricted Immigration and the Foreign Dominance of United States Nobel Prize Winners in Science: Irrefutable Data and Exemplary Family Narratives—Backup Data and Information Andrew A. Beveridge, Queens and Graduate Center CUNY and Social Explorer, Inc. Lynn Caporale, Strategic Scientific Advisor and Author The following slides were presented at the recent meeting of the American Association for the Advancement of Science. This project and paper is an outgrowth of that session, and will combine qualitative data on Nobel Prize Winners family histories along with analyses of the pattern of Nobel Winners. The first set of slides show some of the patterns so far found, and will be augmented for the formal paper. The second set of slides shows some examples of the Nobel families. The authors a developing a systematic data base of Nobel Winners (mainly US), their careers and their family histories. This turned out to be much more challenging than expected, since many winners do not emphasize their family origins in their own biographies or autobiographies or other commentary. Dr. Caporale has reached out to some laureates or their families to elicit that information. We plan to systematically compare the laureates to the population in the US at large, including immigrants and non‐immigrants at various periods. Outline of Presentation • A preliminary examination of the 609 Nobel Prize Winners, 291 of whom were at an American Institution when they received the Nobel in physics, chemistry or physiology and medicine • Will look at patterns of -
MED C-LIVE Transcript
JUNE 2020 Mario Capecchi, Ph.D. NOT FOR PUBLIC DISTRIBUTION Michael Keel My name is Michael Keel from New Jersey. And it is my honor to introduce Dr. Mario Capecchi. Dr. Capecchi is the Distinguished Professor of Human Genetics at the University of Utah School of Medicine. He is best known for his groundbreaking work in gene targeting, in mass embryo derived stem cells. He was awarded the Nobel Prize in Physiology for Medicine, for his work in finding ways to manipulate the mammalian genome by changing mammals’ genes. His research interests include analysis of neural development in mammals, gene therapy, and production of murine models of human genetic diseases, from cancer to neuropsychiatric disorders. Dr. Capecchi, welcome to the Congress of Future Medical Leaders. Dr. Capecchi Thank you. First of all, welcome to the Medical Leaders’ Congress. It's a pleasure to be here. My name is Mario. I'm going to be talking about gene targeting. Next slide please. My laboratory has developed a technology called gene targeting that allows you to change any gene in any conceivable manner in a living creature, such as a mouse. Next slide. Why do we do gene targeting? Next slide. There are many reasons, but they boil down to two. One is basic research and the other is applied research. In basic research, you investigate the biology of an animal. For example, how do you make a limb or a heart or a brain? Those are basic research questions. The other is applied research. That is we can use gene targeting to generate mice with human diseases. -
Tyler Jacks, Phd President, Break Through Cancer; Founding Director, Koch Institute for Integrative Cancer Research, Massachusetts Institute of Technology
Tyler Jacks, PhD President, Break Through Cancer; Founding Director, Koch Institute for Integrative Cancer Research, Massachusetts Institute of Technology www.breakthroughcancer.org Dr. Tyler Jacks, the President of Break Through Can- Dr. Jacks is an elected member of the National Acad- cer, has dedicated his life to cancer research. He emy of Sciences, the National Academy of Medicine, is the Founding Director of the Koch Institute for the American Academy of Arts and Sciences, and Integrative Cancer Research at the Massachusetts was a member of the inaugural class of Fellows of Institute of Technology, the David H. Koch Profes- the AACR Academy. In 2015, Dr. Jacks received the sor of Biology, and Co-director of the Ludwig Cen- Killian Faculty Achievement Award, the highest honor ter for Molecular Oncology. From 2001 – 2007, he the MIT faculty can bestow upon one of its members. served as director of the Koch Institute’s predeces- In 2016, Dr. Jacks co-chaired the Blue-Ribbon Panel sor, the MIT Center for Cancer Research, and was for (then) Vice President Joe Biden’s Cancer Moon- a long-standing Investigator of the Howard Hughes shot Initiative. He was also chair of the National Medical Institute (1994-2021). Dr. Jacks received his Cancer Advisory Board of the National Cancer Insti- bachelor’s degree in Biology from Harvard College, tute during the Obama administration. and his doctorate from the University of California, Dr. Jacks serves on the Board of San Francisco, where he trained with Nobel Laure- Directors of Amgen and Thermo ate Harold Varmus. He was a postdoctoral fellow Fisher Scientific. -
Francisco J. Sánchez-Rivera
Francisco J. Sánchez-Rivera Memorial Sloan Kettering Cancer Center Sloan Kettering Institute Zuckerman Research Building 417 East 68th Street - Z-1119 New York, NY 10065 Tel: 939-292-5555 E-mail: [email protected] Education Fall 2008 - Winter 2016 Massachusetts Institute of Technology Department of Biology Ph.D. in Biology Fall 2003 - Spring 2008 University of Puerto Rico, Mayagüez, PR Department of Biology B.S. in Microbiology Research January 2016 - Present Memorial Sloan Kettering Cancer Center - Sloan Kettering Institute Postdoctoral fellow in the laboratory of Dr. Scott W. Lowe Main Project: Dissecting the biological impact of mutational heterogeneity using mouse models and genome engineering June 2009 - January 2016 Department of Biology at MIT and David H. Koch Institute for Integrative Cancer Research Graduate student in the laboratory of Dr. Tyler Jacks Thesis title: Constructing and deconstructing cancer using CRISPR-Cas9 Main projects: 1) Modeling cancer in vivo using the CRISPR-Cas9 system. 2) CRISPR screens for uncovering genotype-specific cancer drug targets. 3) Molecular mechanisms dictating tumor-specific responses to p53 restoration. June 2008 - August 2008 Whitehead Institute for Biomedical Research Summer student researcher in the laboratory of Dr. Harvey F. Lodish Project: The role of histone deacetylases in enucleation of cultured mouse fetal erythroblasts. June 2007 - August 2007 Department of Biology at MIT Summer student researcher in the laboratory of Dr. Stephen P. Bell Project: Identification of dominant negative helicase mutants by insertional mutagenesis of the yeast replicative helicase Mcm2-7. January 2006 - May 2008 University of Puerto Rico, Mayagüez Campus Department of Biology Undergraduate researcher in the laboratory of Dr. -
The Role of HIF-1Α in Sarcoma Metastasis and Response to Radiation Therapy
The Role of HIF-1α in Sarcoma Metastasis and Response to Radiation Therapy by Minsi Zhang Department of Pharmacology and Cancer Biology Duke University Date:_______________________ Approved: ___________________________ David Kirsch, Supervisor ___________________________ Mark Dewhirst ___________________________ Christopher Kontos ___________________________ Kenneth Poss ___________________________ Jeffrey Rathmell Dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Pharmacology and Cancer Biology in the Graduate School of Duke University 2015 ABSTRACT The Role of HIF-1α in Sarcoma Metastasis and Response to Radiation Therapy by Minsi Zhang Department of Pharmacology and Cancer Biology Duke University Date:_______________________ Approved: ___________________________ David Kirsch, Supervisor ___________________________ Mark Dewhirst ___________________________ Christopher Kontos ___________________________ Kenneth Poss ___________________________ Jeffrey Rathmell An abstract of a dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Pharmacology and Cancer Biology in the Graduate School of Duke University 2015 Copyright by Minsi Zhang 2015 Abstract The degree of intratumoral hypoxia is clinically correlated to poor response to therapy and increased incidence of distal spread in various cancer subtypes. Specifically, the transcription factor Hypoxia Inducible Factor-1α (HIF- 1α), which is accumulated in cells in response to a hypoxic microenvironment, is implicated in poor disease outcome associated with intratumoral hypoxia. Using novel genetically engineered mouse models of primary soft tissue sarcoma, I show that in vivo genetic deletion of HIF-1α specifically in tumor cells 1) decreases the incidence of lung metastases by limiting sarcoma collagen deposition, and 2) improves sarcoma response to radiation therapy by limiting the inflammatory response and metabolic adaptations. -
2004 Albert Lasker Nomination Form
albert and mary lasker foundation 110 East 42nd Street Suite 1300 New York, ny 10017 November 3, 2003 tel 212 286-0222 fax 212 286-0924 Greetings: www.laskerfoundation.org james w. fordyce On behalf of the Albert and Mary Lasker Foundation, I invite you to submit a nomination Chairman neen hunt, ed.d. for the 2004 Albert Lasker Medical Research Awards. President mrs. anne b. fordyce The Awards will be offered in three categories: Basic Medical Research, Clinical Medical Vice President Research, and Special Achievement in Medical Science. This is the 59th year of these christopher w. brody Treasurer awards. Since the program was first established in 1944, 68 Lasker Laureates have later w. michael brown Secretary won Nobel Prizes. Additional information on previous Lasker Laureates can be found jordan u. gutterman, m.d. online at our web site http://www.laskerfoundation.org. Representative Albert Lasker Medical Research Awards Program Nominations that have been made in previous years may be updated and resubmitted in purnell w. choppin, m.d. accordance with the instructions on page 2 of this nomination booklet. daniel e. koshland, jr., ph.d. mrs. william mccormick blair, jr. the honorable mark o. hatfied Nominations should be received by the Foundation no later than February 2, 2004. Directors Emeritus A distinguished panel of jurors will select the scientists to be honored. The 2004 Albert Lasker Medical Research Awards will be presented at a luncheon ceremony given by the Foundation in New York City on Friday, October 1, 2004. Sincerely, Joseph L. Goldstein, M.D. Chairman, Awards Jury Albert Lasker Medical Research Awards ALBERT LASKER MEDICAL2004 RESEARCH AWARDS PURPOSE AND DESCRIPTION OF THE AWARDS The major purpose of these Awards is to recognize and honor individuals who have made signifi- cant contributions in basic or clinical research in diseases that are the main cause of death and disability. -
Eighty Years of Fighting Against Cancer in Serbia Ovarian Cancer Vaccine
News Eighty years of fighting against cancer Recent study by Kunle Odunsi et al., Roswell Park Cancer Institute, Buffalo, in Serbia New York, USA, showed an effects of vaccine based on NY-ESO-1, a „cancer This year on December 10th, Serbian society for the fight against cancer has testis“ antigen in preventing the recurrence of ovarian cancer. NY-ESO-1 is a ovarian celebrated the great jubilee - 80 years of its foundation. The celebration took „cancer-testis“ antigen expressed in epithelial cancer (EOC) and is place in Crystal Room of Belgrade’s Hyatt hotel, gathering many distinguished among the most immunogenic tumor antigens defined to date. presence + guests from the country and abroad. This remarkable event has been held Author’s previous study point to the role of of intraepithelial CD8 - under the auspices of the President of Republic of Serbia, Mr. Boris Tadić. infiltrating T lymphocytes in tumors that was associated with improved survival of The whole ceremony was presided by Prof. Dr. Slobodan Čikarić, actual presi- patients with the disease. The NY-ESO-1 peptide epitope, ESO157–170, is recog- + + dent of Society, who greeted guests and wished them a warm welcome. Than nized by HLA-DP4-restricted CD4 T cells and HLA-A2- and A24-restricted CD8 + followed the speech of Serbian health minister, Prof. Dr. Tomica Milosavljević T cells. To test whether providing cognate helper CD4 T cells would enhance who pointed out the importance of preventive measures and public education the antitumor immune response, Odunsi et al., conducted a phase I clinical trial along with timely diagnosis and multidisciplinary treatment in global fight of immunization with ESO157–170 mixed with incomplete Freund's adjuvant + against cancer in Serbia. -
I. Hox Genes 2
School ofMedicine Oregon Health Sciences University CERTIFICATE OF APPROVAL This is certify that the Ph.D. thesis of WendyKnosp has been approved Mentor/ Advisor ~ Member Member QUANTITATIVE ANALYSIS OF HOXA13 FUNCTION IN THE DEVELOPING LIMB By Wendy M. lt<nosp A DISSERTATION Presented to the Department of Molecular and Medical Genetics and the Oregon Health & Science University School of Medicine in partial fulfillment of the requirements for the degree of Doctor of Philosophy August 2006 TABLE OF CONTENTS LIST OF FIGURES iv LIST OF ABBREVIATIONS vii ACKNOWLEDGEMENTS X ABSTRACT xii CHAPTER 1: Introduction 1 I. Hox genes 2 A. Discovery of Hox genes in Drosophila melanogaster 2 B. Hox cluster colinearity and conservation 7 C. Human Hox mutations 9 D. Hoxa13: HFGS and Guttmacher syndromes 10 II. The Homeodomain 12 A. Homeodomain structure 12 B. DNA binding 14 Ill. Limb development 16 A. Patterning of the limb axes 16 B. Digit formation 20 C. lnterdigital programmed cell death 21 IV. BMPs and limb development 23 A. BMP signaling in the limb 23 B. BMP target genes 27 V. Hoxa13 and embryonic development 30 A. The Hoxa13-GFP mouse model 30 B. Hoxa13 mutant phenotypes 34 C. HOXA 13 homeodomain 35 D. HOXA 13 protein-protein interactions 36 E. HOXA 13 target genes 37 VI. Hypothesis and Rationale 39 CHAPTER 2: HOXA13 regulates Bmp2 and Bmp7 40 I. Abstract 42 II. Introduction 43 Ill. Results 46 IV. Discussion 69 v. Materials and Methods 75 VI. Acknowledgements 83 11 CHAPTER 3: Quantitative analysis of HOXA13 function 84 HOXA 13 regulation of Sostdc1 I. -
October 2, 2001, NIH Record, Vol. LIII, No. 20
R Still The Second Best Thing About Payday Translating the Histone Code: A H G H L 1,G H T, S Tale of Tails at Stetten Talk Attacks on U.S. Change Life at NIH By Rich McManus By Alison Davis Security Beefed Up News stories appearing over the last year he transition from peacetime's reliable routine to wartime On Campus would have everyone believe that scientists anxiety took place in only minutes as NTH employees came have-once and for all~racked the human Tto work on an otherwise spectacular late summer morning genetic code. Indeed, two teams of 50th Anniversary Sept. 11 and scientists have already published a draft For NINOS, NIMH discovered by 9:45- sequence of our 3-billion-unit jumble of via office televisions, DNA "letters." But t he task of thoroughly radio, the web, deciphering the code's protein-making phone calls and Grantees Win hallway conversa instructions-something our bodies do Lasker Award SEE STETTEN LECTURE, PAGE 2 tions-that terror ism on an almost unimaginable scale Kolb To Give was taking place in Pittman Lecture New York City and in the heart of Washington, D.C. Fall Computer The workday froze Courses Offered as workers tuned in to the news-the World Trade Center towers in flames, Flag flies at half-mast in tragedy's wake. Outdoor Film and smoke rising from behind the Old Executive Office buiJding Dr. C. David Allis to give Stetten Lecture. Festival a Big Hit near the White House. Summer Jobs into Permanent Posts In the OD Office of Communications and Public Liaison in Bldg. -
Susceptibility to Astrocytoma in Mice Mutant for Nf1 and Trp53 Is Linked to Chromosome 11 and Subject to Epigenetic Effects
Susceptibility to astrocytoma in mice mutant for Nf1 and Trp53 is linked to chromosome 11 and subject to epigenetic effects Karlyne M. Reilly*†, Robert G. Tuskan*, Emily Christy‡§, Dagan A. Loisel‡§, Jeremy Ledger‡, Roderick T. Bronson¶, C. Dahlem Smithʈ, Shirley Tsang**, David J. Munroe**, and Tyler Jacks‡§ *Mouse Cancer Genetics Program, National Cancer Institute, Frederick, MD 21702; ‡Department of Biology and Center for Cancer Research and §Howard Hughes Medical Institute, Massachusetts Institute of Technology, Cambridge, MA 02169; ¶Department of Pathology, Harvard Medical School, Boston, MA 02115; and Laboratories of ʈAnimal Sciences Program and **Molecular Technology, Science Applications International Corporation, Frederick, MD 21702 Edited by Bert Vogelstein, The Sidney Kimmel Comprehensive Cancer Center at Johns Hopkins, Baltimore, MD, and approved July 9, 2004 (received for review February 21, 2004) Astrocytoma is the most common malignant brain tumor in hu- tumors such as astrocytoma (8, 9), although this observation is mans. Loss of the p53 signaling pathway and up-regulation of the as likely due to the particular mutant allele of NF1 (10) as to ras signaling pathway are common during tumor progression. We genetic or environmental risk factors. Astrocytomas are also have shown previously that mice mutant for Trp53 and Nf1 frequently associated with mutations in Tp53 in sporadic cases develop astrocytoma, progressing to glioblastoma, on a C57BL͞6J (11, 12) or in LFS patients carrying germline mutations in the strain background. In contrast, here we present data that mice Tp53 gene (5) (Trp53 in the mouse). Although there are no clear mutant for Trp53 and Nf1 on a 129S4͞SvJae background are highly data in patients that genetic background affects the risk of resistant to developing astrocytoma. -
The Nobel Prize in Physiology Or Medicine 2007
PRESS RELEASE 2007-10-08 The Nobel Assembly at Karolinska Institutet has today decided to award The Nobel Prize in Physiology or Medicine 2007 jointly to Mario R. Capecchi, Martin J. Evans and Oliver Smithies for their discoveries of “principles for introducing specific gene modifications in mice by the use of embryonic stem cells” SUMMARY This year’s Nobel Laureates have made a series of ground-breaking discoveries concerning embryonic stem cells and DNA recombination in mammals. Their discoveries led to the creation of an immensely powerful technology referred to as gene targeting in mice. It is now being applied to virtually all areas of biomedicine – from basic research to the development of new therapies. Gene targeting is often used to inactivate single genes. Such gene “knockout” experiments have elucidated the roles of numerous genes in embryonic development, adult physiology, aging and disease. To date, more than ten thousand mouse genes (approximately half of the genes in the mammalian genome) have been knocked out. Ongoing international efforts will make “knockout mice” for all genes available within the near future. With gene targeting it is now possible to produce almost any type of DNA modification in the mouse genome, allowing scientists to establish the roles of individual genes in health and disease. Gene targeting has already produced more than five hundred different mouse models of human disorders, including cardiovascular and neuro-degenerative diseases, diabetes and cancer. Modification of genes by homologous recombination Information about the development and function of our bodies throughout life is carried within the DNA. Our DNA is packaged in chromosomes, which occur in pairs – one inherited from the father and one from the mother. -
The David H. Koch Institute for Integrative Cancer Research at MIT
The David H. Koch Institute for Integrative Cancer Research at MIT The David H. Koch Institute for Integrative Cancer Research was announced on October 9, 2007. By combining the faculty of the (now former) MIT Center for Cancer Research (CCR) with an equivalent number of distinguished engineers drawn from various MIT departments, the Koch Institute will continue CCR’s tradition of scientific excellence while also seeking to directly promote innovative ways to diagnose, monitor, and treat cancer through advanced technology. Among the engineering faculty there will be remarkable diversity, as the Electrical Engineering and Computer Science, Materials Science and Engineering, Biological Engineering, Chemical Engineering, and Mechanical Engineering departments will be represented in the Koch Institute. For three decades, CCR has been a mainstay of MIT’s—and the nation’s—efforts to conquer cancer. Its faculty has included five Nobel Prize winners, and the wealth of fundamental discoveries that have emerged under its aegis have helped shape the face of molecular biology. Under the banner of the Koch Institute, the future promises to hold even more astounding advances. Within the Koch Institute we will not directly provide clinical care for cancer patients but discoveries made by Koch Institute scientists and engineers will have a broad impact on how the disease is detected and managed. Applying our great strengths in science and technology, and working closely with our clinical collaborators, Koch Institute researchers will be tireless in unraveling the complexities of this disease and bringing new discoveries—and new hope—to patients. The Koch Institute includes more than 40 laboratories and more than 500 researchers located at our headquarters and across the MIT campus.