PUBLIC RELEASE DATE: <\/p>\n
7-Nov-2014 <\/p>\n
Contact: Bonnie Prescott bprescot@bidmc.harvard.edu<\/a> 617-667-7306 Beth Israel Deaconess Medical Center @BIDMChealth<\/p>\n BOSTON --- Bruce Furie, MD, Chief of the Division of Hemostasis and Thrombosis at Beth Israel Deaconess Medical Center (BIDMC) and Professor of Medicine at Harvard Medical School, has been named a 2014 Distinguished Scientist by the American Heart Association (AHA). <\/p>\n The Distinguished Scientist Award was created 10 years ago to recognize AHA members for significant, original and sustained scientific contributions that have advanced the association's mission of \"building healthier lives, free of cardiovascular diseases and stroke.\" Furie is one of six recipients of this year's prestigious award and will be honored during the Opening Session at the American Heart Association Scientific Sessions on November 15. <\/p>\n A world leader in hemostasis and thrombosis research, Furie's work spans more than 40 years and has led to pioneering discoveries in understanding the mechanisms that underlie the formation of blood clots. A leading cause of heart attack and stroke, blood clots (thrombi) account for more than half of all morbidity and mortality in the United States. <\/p>\n Work by the Furie laboratory has led to the discovery of P-selectin, an adhesion molecule that serves as \"molecular Velcro\" to capture critical white blood cells at the site of inflammation. His group also developed a novel imaging technology for witnessing thrombus formation in a living animal. <\/p>\n \"Bruce Furie's work has provided the medical community with critically important insights into exactly how blood clots form,\" says BIDMC Chair of Medicine Mark Zeidel, MD. \"His one-of-a-kind widefield and confocal imaging system has shown that a critical series of enzymes known for their participation in protein synthesis are also required for thrombus formation.\" <\/p>\n BIDMC Chief Academic Officer Vikas Sukhatme, MD, PhD, adds, \"Dr. Furie is the quintessential translational scientist. His lab's discovery that protein disulfide isomerase [PDI] plays a critical role in blood clot formation is a prime example of how basic research can reach the patient. He and members of his group have now embarked on clinical trials to test whether PDI can serve as an improved target for a novel class of antithrombotics.\" <\/p>\n Furie received his AB from Princeton University and his MD from the University of Pennsylvania. After residency at the Hospital of the University of Pennsylvania, he was a postdoctoral fellow at the National Institutes of Health (NIH). He joined the faculty of BIDMC in 1997 after 22 years on the faculty of New England Medical Center (now Tufts Medical Center) and Tufts University School of Medicine where he served as Chief of the Division of Hematology-Oncology. <\/p>\n <\/p>\n Visit link: <\/p>\n BIDMC's Bruce Furie, MD, honored as Distinguished Scientist by American Heart Association<\/a><\/p>\n","protected":false},"excerpt":{"rendered":" PUBLIC RELEASE DATE: 7-Nov-2014 Contact: Bonnie Prescott bprescot@bidmc.harvard.edu<\/a> 617-667-7306 Beth Israel Deaconess Medical Center @BIDMChealth BOSTON --- Bruce Furie, MD, Chief of the Division of Hemostasis and Thrombosis at Beth Israel Deaconess Medical Center (BIDMC) and Professor of Medicine at Harvard Medical School, has been named a 2014 Distinguished Scientist by the American Heart Association (AHA). The Distinguished Scientist Award was created 10 years ago to recognize AHA members for significant, original and sustained scientific contributions that have advanced the association's mission of \"building healthier lives, free of cardiovascular diseases and stroke.\" Furie is one of six recipients of this year's prestigious award and will be honored during the Opening Session at the American Heart Association Scientific Sessions on November 15. A world leader in hemostasis and thrombosis research, Furie's work spans more than 40 years and has led to pioneering discoveries in understanding the mechanisms that underlie the formation of blood clots. Continue reading