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Dr. Sawyers is an Investigator of the Howard Hughes Medical Institute and the inaugural Director of the Human Oncology and Pathogenesis Program (HOPP) at Memorial Sloan-Kettering Cancer Center, where he is building a program of lab-based translational researchers across various clinical disciplines and institutional infrastructure to enhance the application of global genomics tools to clinical trials.
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Websites: Charles Sawyers' Wikipedia
Stand Up To Cancer CBS Discussion
Facebook Pages: Sloan-Kettering Facebook Page
Twitter Feeds: @sloan_kettering
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Occupation: Physician-Scientist; Oncologist
Alternative career choice: Science Reporter
What do rock stars and scienctists have in common: Both are creative, visual people who like to do their own thing.
I tend to approach life: With Optimism
Biggest misconceptions about me or my work: The drugs we create are cures.
Worst part-time job ever: Delivering the yellow pages door to door.
Longest med school study session: Anatomy
Best moment in medicine/research: Informing the first leukemia patient taking an experimental drug that she'd gone into complete remission.
Disease Area: Leukemia, prostate cancer
Research Area: Cancer genomics, drug development and overcoming drug resistance
Science Impact/Accomplishments or Goal: I played a key role in developing gleevec, a drug that blocks the gene that causes chronic myeloid leukemia and puts patients into remission without the side effects of chemotherapy. Although it is not a cure, gleevec prolongs the life of these patients by many years. In patients where gleevec stops working, we discovered why and developed a second drug called dasatinib that puts patients back into remission. We then pursued a similar strategy in prostate cancer and discovered a drug called MDV3100 that blocks the growth of tumors in men with metastatic prostate cancer. MDV3100 is now in the last stage of clinical trials.
Research Description: My laboratory studies genes that cause prostate cancer, with the goal of using that information to improve how we diagnose and treat this disease. We start by examining the prostate cancers of patients treated at Memorial Sloan-Kettering Cancer Center for alterations in their genomes. This gives us important clues about which genes are causing the tumor cells to grow. We then study these mutant genes in mice to understand how they work and test drugs that can block their effects. These results help us pick which drugs to test in clinical trials of new drugs as well as design diagnostic tests that predict which patients are most likely to benefit from the new treatments.