TY - JOUR
T1 - Identification of a Privileged Scaffold for Inhibition of Sterol Transport Proteins through the Synthesis and Ring Distortion of Diverse, Pseudo-Natural Products
AU - Bro, Frederik Simonsen
AU - Depta, Laura
AU - Dekker, Nienke J.
AU - Bryce-Rogers, Hogan P.
AU - Madsen, Maria Lillevang
AU - Præstegaard, Kaia Fiil
AU - Petersson, Tino
AU - Whitmarsh-Everiss, Thomas
AU - Kubus, Mariusz
AU - Laraia, Luca
N1 - Publisher Copyright:
© 2025 The Authors. Published by American Chemical Society.
PY - 2025
Y1 - 2025
N2 - 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.
AB - 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.
U2 - 10.1021/acscentsci.4c01657
DO - 10.1021/acscentsci.4c01657
M3 - Journal article
C2 - 39866705
AN - SCOPUS:85214564120
SN - 2374-7943
VL - 11
SP - 136
EP - 146
JO - ACS Central Science
JF - ACS Central Science
IS - 1
ER -