Small-Molecule Inhibitor Prevents Insulin Fibrillogenesis and Preserves Activity

Amyloidosis is a well-known but poorly understood phenomenon caused by the aggregation of proteins, often leading to pathological conditions. For example, the aggregation of insulin poses significant challenges during the preparation of pharmaceutical insulin formulations commonly used to treat diab...

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Veröffentlicht in:Molecular pharmaceutics 2020-06, Vol.17 (6), p.1827-1834
Hauptverfasser: Das, Anirban, Gangarde, Yogesh M, Tomar, Viniti, Shinde, Omkar, Upadhyay, Tulsi, Alam, Sarfaraz, Ghosh, Sudipta, Chaudhary, Varun, Saraogi, Ishu
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container_end_page 1834
container_issue 6
container_start_page 1827
container_title Molecular pharmaceutics
container_volume 17
creator Das, Anirban
Gangarde, Yogesh M
Tomar, Viniti
Shinde, Omkar
Upadhyay, Tulsi
Alam, Sarfaraz
Ghosh, Sudipta
Chaudhary, Varun
Saraogi, Ishu
description Amyloidosis is a well-known but poorly understood phenomenon caused by the aggregation of proteins, often leading to pathological conditions. For example, the aggregation of insulin poses significant challenges during the preparation of pharmaceutical insulin formulations commonly used to treat diabetic patients. Therefore, it is essential to develop inhibitors of insulin aggregation for potential biomedical applications and for important mechanistic insights into amyloidogenic pathways. Here, we have identified a small molecule M1, which causes a dose-dependent reduction in insulin fibril formation. Biophysical analyses and docking results suggest that M1 likely binds to partially unfolded insulin intermediates. Further, M1-treated insulin had lower cytotoxicity and remained functionally active in regulating cell proliferation in cultured wing epithelium. Thus, M1 is of great interest as a novel agent for inhibiting insulin aggregation during biopharmaceutical manufacturing.
doi_str_mv 10.1021/acs.molpharmaceut.9b01080
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title Small-Molecule Inhibitor Prevents Insulin Fibrillogenesis and Preserves Activity
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