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Hruz Lab

Paul W. Hruz, MD, PhD
Division of Endocrinology & Diabetes

Unraveling the mechanisms of glucose transport, our laboratory investigates how facilitative glucose transporters regulate normal and disordered glucose homeostasis. Focusing on structure–function relationships within GLUT proteins, we apply advanced chemical and biophysical techniques to define the architecture of GLUT1 and GLUT4. In parallel, we examine how HIV protease inhibitors alter GLUT function, aiming to uncover molecular pathways that contribute to insulin resistance in treated patients.

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Stone Lab

Stephen I. Stone, MD
Division of Endocrinology & Diabetes

Decoding insulin resistance through rare genetic syndromes, our laboratory investigates severe insulin resistance disorders as unique experiments of nature to uncover fundamental principles of insulin signaling. Leveraging patient-derived models and CRISPR/Cas9 gene editing, we create transgenic mice and induced pluripotent stem cells differentiated into key cell types, enabling deep insights into molecular pathology and therapeutic discovery. These approaches bridge basic biology with translational strategies to improve care for metabolic disease.

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Thompson Lab

Michael D. Thompson, MD, PhD
Division of Endocrinology & Diabetes

Investigating early-life origins of liver disease, our laboratory examines how maternal and paternal diet, microbiome shifts and exercise shape offspring liver health. Grounded in the developmental origins hypothesis, we focus on how in utero and perinatal events influence risk for chronic conditions such as non-alcoholic fatty liver disease (NAFLD), with particular emphasis on the impact of parental over-nutrition.

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Vyas Lab

Arpita K. Vyas, MD, DCH
Division of Endocrinology & Diabetes

Investigating how hormonal changes during pregnancy shape long-term cardiovascular health, our center explores the molecular mechanisms linking gestational hyperandrogenism and exposure to endocrine-disrupting chemicals with adverse maternal and fetal cardio-metabolic outcomes. By integrating large animal models with cellular and molecular biology, we aim to uncover pathways that predispose offspring to cardiovascular disease and identify strategies for prevention and treatment. Our work advances the developmental origins of health and disease framework, driving innovation in early-life interventions.

Research profile