We study protein quality control across translational models of cancer, cardiovascular disease and neurodegeneration with the goal of defining mechanisms of protein homeostasis and identifying therapeutic targets. Our unified approach is based on the realization that a single cellular machinery, the Hsp90/Hsp70 based chaperone machinery, controls the activity, turnover and trafficking of hundreds of client proteins, and as such plays a critical role in the pathogenesis of these varied disorders. Our goal is to define the mechanism by which this machinery triages unfolded or damaged proteins for degradation in order to develop strategies to achieve therapeutic benefits in disease.
All meetings begin at 1:30 pm
Meetings will be held in 6340 MSRB 3 unless otherwise noted
September 14, 2021 – No Meeting
October 12, 2021 – Mark, Mukesh, Stephanie, Yoichi – Zoom
November 9, 2021 – Matthias, Yoichi, Andy – Zoom
December 14, 2021 – Stephanie Moon’s Lab – Zoom
January 11, 2022 – Mukesh Nyati – Canceled
February 8, 2022 – Andy Lieberman’s Lab – Zoom
March 8, 2022 – Matthias Truttmann’s Lab -Zoom
April 12, 2022 – Mukesh Nyati – 6340 MSRB 3 and Zoom
May 10, 2022 – Abigail Fahim – Zoom
June 14, 2022 – Andrea Thompson – 6340 MSRB 3 and Zoom
Andrew Lieberman, M.D., Ph.D.
Andrew Lieberman is the Gerald Abrams Collegiate Professor of Pathology and Director of Neuropathology along with being the Co-Director of the Protein Folding Diseases Initiative. His laboratory studies inherited neurodegenerative disorders with the goals of identifying therapeutic targets. They are particularly interested in targeting the Hsp90/Hsp70 based chaperone machinery to promote degradation of misfolded proteins.
Yoichi Osawa, Ph.D.
Yoichi Osawa is the Warner-Lambert/Parke-Davis Professor in Medicine and Professor of Pharmacology. His laboratory studies the Hsp90 and Hsp70 chaperone machinery in protein quality control with a focus on the ubiquitination and regulation of NO synthases and P450 cytochromes.
Mukesh Nyati, Ph.D.
Mukesh Nyati’s lab conducts research around understanding EGF-Receptor mediated signaling in tumors. We now know that the clinical effectiveness of kinase-targeted agents has been inconsistent, mainly because of the acquired resistance. It has been shown that EGFR has scaffold/allosteric functions in addition to tyrosine kinase activity. Therapies that induce protein degradation of EGFR remains effective in tumors that acquire resistance to tyrosine kinase inhibitors. Based on our current understanding of TKI resistance and EGFR dimerization we are developing new therapeutic strategies targeting the intracellular dimerization interface of EGFR to induce protein degradation as a potential therapy option for EGFR-driven cancers.
Andrea Thompson, M.D.
Andrea Thompson is a Clinical Lecturer in Internal Medicine and is co-mentored by David Ginsburg and Sharlene Day. Her research focuses on developing novel chemical tools that target non-enzymatic sarcomere proteins, also mutations in non-enzymatic sarcomere proteins which are the most common cause of genetic cardiomyopathies. Molecular chaperones play a central role in the regulation of these proteins and are important target to chemical modulation.
Matthias Truttmann, Ph.D.
Matthias Truttmann is an Assistant Professor in Molecular and Integrative Physiology and a Research Assistant Professor in the Institute of Gerontology. His lab studies how post-translational protein modifications regulate chaperone function. In particular, they are interested in a novel modification, called AMPylation, which recently emerged as a key regulator of HSP70 chaperone activity.
Stephanie Moon, Ph.D.
Stephanie Moon is Assistant Professor of Human Genetics and a Faculty Scholar of the Center for RNA Biomedicine. Her laboratory is interested in how genes are expressed via the coordinated regulation of messenger RNAs at the levels of translation, localization, and decay. They study mRNA regulation in the context of human disease and stress, with a particular interest in neurological disorders. Their research aims to reveal the underlying principles and mechanisms governing mRNA in both health and disease to elucidate new therapeutic and diagnostic strategies.