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The Scope E-Newsletter From the Dean's Office Defining GSM: What Is Your Story? A New Cancer Institute Will Break Ground in July Faculty Appreciation Dr. Baljepally, Dr. Panella and Dr. Rasnake Are Recognized for Excellence In the Spotlight Researchers Take First Sub-Nanoscale Images of Huntington's Disease Protein Medtronic Awards Grant to Study Possible BRONJ Prevention Treatment Radiology Residents Pass Oral Board Exam; Dr. Hudson and Dr. Bradley Proctor Dr. Terrell Receives Grant to Examine Nature Versus Nurture in Concussion Faculty Discuss Hot Topics in the News Visiting Professor Dr. Park Studies at Regional Forensic Center Dr. Carlson Receives Prestigious Honor from His Alma Mater Dr. Zite Wins Blue Ribbon Award Radiology Residents Attend National Meetings Dr. Hudson Elected as Exam Regional Advisor Dr. Craft Provides Leadership on Anesthesiology Exams Pathology Hosts Visiting Professor Dr. Robert Young Dr. Burgiss Honored as Fellow in Telemedicine News Frontiers Magazine Features Centers of Excellence, Economic Impact Reporting Hazards, Accidents and Near Misses Portrait Services Now Available Continuing Education Heart, Lung, Vascular Update: Early Registration Ends August 26 Tumor Boards Now Certified for Credit CME Courses at UTK Focus on EHR and Lean for Healthcare Inaugural GI Cancer Conference Successful Scholarly Activity Residents and Fellows Present at UTGSM Research Days
Read all articles in this issue of The Scope
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Researchers Take First Sub-Nanoscale Images of Huntington's Disease Protein
Huntington's disease is caused by a renegade protein "huntingtin" that destroys neurons in areas of the brain concerned with the emotions, intellect and movement. All humans have the normal huntingtin protein, which is known to be essential to human life, although its true biological functions remain unclear. Dr. Stanley and Dr. Berthelier, in research published May 18 in Biophysical Journal, were able to determine the size and mass of the mutant protein structures—from the earliest small, spherical precursor species composed of two (dimers) and three (trimers) peptides—along the aggregation pathway to the development of the resulting, later-stage fibrils. They were also able to see inside the later-stage fibrils and determine their internal structure, which provides additional insight into how the peptides aggregate. Now that they know the structures, the hope is to develop drugs that can counteract the toxic properties in the early stages, or dissuade them from taking the path to toxicity. Read more about the process Dr. Stanley and Dr. Berthelier used to explore the toxic proteins in an article released by Bill Cabage with ORNL.
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