Controlling the Helical Pitch of Foldamers through Terminal Functionality: A Solid State Study

Developing new methods to control the size and shape of the helical structures adopted by foldamers is highly important as the secondary structure displayed by these supramolecular scaffolds often dictates their activity and function. Herein, we report on a systematic study demonstrating that the helical pitch of ortho-azobenzene/2,6-pyridyldicarboxamide foldamers can be readily controlled through the nature of the terminal functionality. Remarkably, simply through varying the end group of the foldamer, and without modifying any other structural features of the scaffold, the helical pitch can be over doubled in magnitude (from 3.4 Å-7.3 Å). Additionally, crystallographic analysis of a library ten foldamers has identified general trends in the influence of a range of terminal functionalities, including carboxylbenzyl (Cbz), diphenylcarbamyl (N(Ph)<sub>2</sub>), ferrocene (Fc) and tert-butyloxycarbonyl (Boc), in controlling the folding behaviour of these supramolecular scaffolds. These studies could prove useful in the future development of functional foldamers which adopt specific sizes and shapes.

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Publication Details

Journal
Chemistry - A European Journal
Published
2024-09-09
DOI
https://doi.org/10.1002/chem.202402892
Citations
2
Primary Topic
Chemical Synthesis and Analysis
Type
article
Field-Weighted Citation Impact
0.47

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article

Controlling the Helical Pitch of Foldamers through Terminal Functionality: A Solid State Study

Alexander C. Davis, Colin C. Seaton, Sarah J. Pike, Sena Ozturk et al.
2 citations
Chemistry - A European Journal
Chemical Synthesis and Analysis
0.47
article

Controlling the Helical Pitch of Foldamers through Terminal Functionality: A Solid State Study

Alexander C. Davis, Colin C. Seaton, Sarah J. Pike, Sena Ozturk, Louise Male
article en
2 citations

Abstract

Developing new methods to control the size and shape of the helical structures adopted by foldamers is highly important as the secondary structure displayed by these supramolecular scaffolds often dictates their activity and function. Herein, we report on a systematic study demonstrating that the helical pitch of ortho-azobenzene/2,6-pyridyldicarboxamide foldamers can be readily controlled through the nature of the terminal functionality. Remarkably, simply through varying the end group of the foldamer, and without modifying any other structural features of the scaffold, the helical pitch can be over doubled in magnitude (from 3.4 Å-7.3 Å). Additionally, crystallographic analysis of a library ten foldamers has identified general trends in the influence of a range of terminal functionalities, including carboxylbenzyl (Cbz), diphenylcarbamyl (N(Ph)<sub>2</sub>), ferrocene (Fc) and tert-butyloxycarbonyl (Boc), in controlling the folding behaviour of these supramolecular scaffolds. These studies could prove useful in the future development of functional foldamers which adopt specific sizes and shapes.

Chemistry - A European JournalVol. 30(68)
University of Bradford (GB), University of Birmingham (GB)
Diamond Light Source, UK Research and Innovation, Leverhulme Trust, Royal Society of Chemistry
Industry, innovation and infrastructure
Openalex Percentile: Top 35%
Chemical Synthesis and Analysis
0.47
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