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Translational Medical Research Commons™
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Full-Text Articles in Translational Medical Research
Fatty Acid Metabolites Combine With Reduced Β Oxidation To Activate Th17 Inflammation In Human Type 2 Diabetes, Dequina A. Nicholas, Elizabeth A. Proctor, Madhur Agrawal, Anna C. Belkina, James M. Van Nostrand, Leena Panneerseelan-Bharath, Albert R. Jones Iv, Forum Raval, Blanche C. Ip, Min Zhu, Jose M. Cacicedo, Chloe Habib, Nestor Sanez-Rueda, Leah Persky, Patrick G. Sullivan, Barbara E. Corkey, Caroline M. Apovian, Philip A. Kern, Douglas A. Lauffenburger, Barbara S. Nikolajczyk
Fatty Acid Metabolites Combine With Reduced Β Oxidation To Activate Th17 Inflammation In Human Type 2 Diabetes, Dequina A. Nicholas, Elizabeth A. Proctor, Madhur Agrawal, Anna C. Belkina, James M. Van Nostrand, Leena Panneerseelan-Bharath, Albert R. Jones Iv, Forum Raval, Blanche C. Ip, Min Zhu, Jose M. Cacicedo, Chloe Habib, Nestor Sanez-Rueda, Leah Persky, Patrick G. Sullivan, Barbara E. Corkey, Caroline M. Apovian, Philip A. Kern, Douglas A. Lauffenburger, Barbara S. Nikolajczyk
Clinical and Translational Science Faculty Publications
Mechanisms that regulate metabolites and downstream energy generation are key determinants of T cell cytokine production, but the processes underlying the Th17 profile that predicts the metabolic status of people with obesity are untested. Th17 function requires fatty acid uptake, and our new data show that blockade of CPT1A inhibits Th17-associated cytokine production by cells from people with type 2 diabetes (T2D). A low CACT:CPT1A ratio in immune cells from T2D subjects indicates altered mitochondrial function and coincides with the preference of these cells to generate ATP through glycolysis rather than fatty acid oxidation. However, glycolysis was not critical for …