A Disulfide Scan of Insulin by [3 + 1] Methodology Exhibits Site-Specific Influence on Bioactivity
Insulin is the principal hormone involved in the regulation of metabolism and has served a seminal role in the treatment of diabetes. Building upon advances in insulin synthetic methodology, we have developed a straightforward route to novel insulins containing a fourth disulfide bond in a [3 + 1] f...
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Veröffentlicht in: | ACS chemical biology 2019-08, Vol.14 (8), p.1829-1835 |
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creator | Brunel, Florence M Mayer, John P Gelfanov, Vasily M Zaykov, Alexander N Finan, Brian Perez-Tilve, Diego DiMarchi, Richard D |
description | Insulin is the principal hormone involved in the regulation of metabolism and has served a seminal role in the treatment of diabetes. Building upon advances in insulin synthetic methodology, we have developed a straightforward route to novel insulins containing a fourth disulfide bond in a [3 + 1] fashion establishing the first disulfide scan of the hormone. All the targeted analogs accommodated the constraint to demonstrate an unexpected conformational flexibility of native insulin. The bioactivity was established for the constrained (4-DS) and unconstrained (3-DS) analogs by in vitro methods, and extended to in vivo study for select peptides. We also identified residue B10 as a preferred anchor to introduce a tether that would regulate insulin bioactivity. We believe that the described [3 + 1] methodology might constitute the preferred approach for performing similar disulfide scanning in peptides that contain multiple disulfides. |
doi_str_mv | 10.1021/acschembio.9b00420 |
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subjects | Amino Acid Sequence Disulfides - chemical synthesis Disulfides - chemistry Insulin - analogs & derivatives Insulin - chemical synthesis Protein Conformation Protein Engineering - methods |
title | A Disulfide Scan of Insulin by [3 + 1] Methodology Exhibits Site-Specific Influence on Bioactivity |
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