Identification of a Privileged Scaffold for Inhibition of Sterol Transport Proteins through the Synthesis and Ring Distortion of Diverse, Pseudo-Natural Products

Sterol transport proteins mediate intracellular sterol transport, organelle contact sites, and lipid metabolism. Despite their importance, the similarities in their sterol-binding domains have made the identification of selective modulators difficult. Herein we report a combination of different compound library synthesis strategies to prepare a cholic acid-inspired compound collection for the identification of potent and selective inhibitors of sterol transport proteins. The fusion of a primary sterol scaffold with a range of different fragments found in natural products followed by various ring distortions allowed the synthesis of diverse sterol-inspired compounds. This led to the identification of a complex and three-dimensional spirooxepinoindole as a privileged scaffold for sterol transport proteins. With careful optimization of the scaffold, the selectivity could be directed toward a single transporter, as showcased by the development of a potent and selective Aster-A inhibitor. We suggest that the combination of different design strategies is generally applicable for the identification of potent and selective bioactive compounds with drug-like properties.

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Publication Details

Journal
ACS Central Science
Published
2025-01-09
DOI
https://doi.org/10.1021/acscentsci.4c01657
Citations
7
Primary Topic
RNA and protein synthesis mechanisms
Type
article
Field-Weighted Citation Impact
5.64

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article

Identification of a Privileged Scaffold for Inhibition of Sterol Transport Proteins through the Synthesis and Ring Distortion of Diverse, Pseudo-Natural Products

M. M. Madsen, Nienke J Dekker, Frederik Simonsen Bro, Thomas Whitmarsh‐Everiss et al.
7 citations
ACS Central Science
RNA and protein synthesis mechanisms
5.64
article

Identification of a Privileged Scaffold for Inhibition of Sterol Transport Proteins through the Synthesis and Ring Distortion of Diverse, Pseudo-Natural Products

M. M. Madsen, Nienke J Dekker, Frederik Simonsen Bro, Thomas Whitmarsh‐Everiss, Luca Laraia, Mariusz Kubus, Laura Depta, Hogan P. Bryce-Rogers, Kaia Fiil Præstegaard, Tino Petersson
article en
7 citations

Abstract

Sterol transport proteins mediate intracellular sterol transport, organelle contact sites, and lipid metabolism. Despite their importance, the similarities in their sterol-binding domains have made the identification of selective modulators difficult. Herein we report a combination of different compound library synthesis strategies to prepare a cholic acid-inspired compound collection for the identification of potent and selective inhibitors of sterol transport proteins. The fusion of a primary sterol scaffold with a range of different fragments found in natural products followed by various ring distortions allowed the synthesis of diverse sterol-inspired compounds. This led to the identification of a complex and three-dimensional spirooxepinoindole as a privileged scaffold for sterol transport proteins. With careful optimization of the scaffold, the selectivity could be directed toward a single transporter, as showcased by the development of a potent and selective Aster-A inhibitor. We suggest that the combination of different design strategies is generally applicable for the identification of potent and selective bioactive compounds with drug-like properties.

ACS Central ScienceVol. 11(1)
Technical University of Denmark (DK)
Villum Fonden, European Commission, Carlsbergfondet, Novo Nordisk, Danmarks Tekniske Universitet, Novo Nordisk Fonden, European Research Council
Zero hunger
Openalex Percentile: Top 4%
RNA and protein synthesis mechanisms
5.64
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