Stabilization of 310-Helices in Macrocycles Using Dominant Rotor Methodology

Stabilization of biologically relevant structural motifs has been a long-standing challenge. Here we show that atropisomeric dominant rotors can stabilize rare 310-helices in macrocycles. The target molecules were prepared using solid-phase peptide synthesis and subjected to extensive structural ana...

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Veröffentlicht in:Journal of the American Chemical Society 2024-08, Vol.146 (34), p.24085-24093
Hauptverfasser: Širvinskas, Martynas J., Saunders, George J., Mitrache, Monica, Yudin, Andrei K.
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container_issue 34
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creator Širvinskas, Martynas J.
Saunders, George J.
Mitrache, Monica
Yudin, Andrei K.
description Stabilization of biologically relevant structural motifs has been a long-standing challenge. Here we show that atropisomeric dominant rotors can stabilize rare 310-helices in macrocycles. The target molecules were prepared using solid-phase peptide synthesis and subjected to extensive structural analysis. Molecular dynamics (MD) simulations enabled us to acquire solution structures for the target molecules, which offered evidence for stable 310-helix formation, ordinarily a metastable state. The 310-helices were shown to retain helicity after heating to 100 °C for 72 h. Moreover, the crude atropisomeric mixtures could be thermally enriched toward 310-helical macrocycles with selectivities of >20:1.
doi_str_mv 10.1021/jacs.4c08129
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title Stabilization of 310-Helices in Macrocycles Using Dominant Rotor Methodology
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