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High-throughput miniaturized synthesis of protac-like molecules

Abstract: The development of miniaturized high-throughput in situ screening platforms capable of handling the entire process of drug synthesis to final screening is essential for advancing drug discovery in the future. In this study, an approach based on combinatorial solid-phase synthesis, enabling the efficient synthesis of libraries of proteolysis targeting chimeras (PROTACs) in an array format is presented. This on-chip platform allows direct biological screening without the need for transfer steps. UV-induced release of target molecules into individual droplets facilitates further on-chip experimentation. Utilizing a mitogen-activated protein kinase kinases (MEK1/2) degrader as a template, a series of 132 novel PROTAC-like molecules is synthesized using solid-phase Ugi reaction. These compounds are further characterized using various methods, including matrix-assisted laser desorption ionization mass spectrometry (MALDI-MS) imaging, while consuming only a few milligrams of starting materials in total. Furthermore, the feasibility of culturing cancer cells on the modified spots and quantifying the effect of MEK suppression is demonstrated. The miniaturized synthesis platform lays a foundation for high-throughput in situ biological screening of potent PROTACs for potential anticancer activity and offers the potential for accelerating the drug discovery process by integrating miniaturized synthesis and biological steps on the same array. TechnicalRemarks: Dataset: High-Throughput Miniaturized Synthesis of PROTAC-Like Molecules

Cite this as

Tian, Ye, Seifermann, Maximilian, Bauer, Liana, Luchena, Charlotte, Wiedmann, Janne Jasmin, Schmidt, Stefan, Geisel, Alexander, Afonin, Sergii, Brehm, Marius, Höpfner, Julius, Liu, Xinyong, Hopf, Carsten, Popova, Anna A., Levkin, Pavel (2024). Dataset: High-throughput miniaturized synthesis of protac-like molecules. https://doi.org/10.35097/duBqHzsCIlsbDxIB

DOI retrieved: 2024

Additional Info

Field Value
Imported on November 28, 2024
Last update November 28, 2024
License CC BY 4.0 Attribution
Source https://doi.org/10.35097/duBqHzsCIlsbDxIB
Author Tian, Ye
Given Name Ye
Family Name Tian
More Authors
Seifermann, Maximilian
Bauer, Liana
Luchena, Charlotte
Wiedmann, Janne Jasmin
Schmidt, Stefan
Geisel, Alexander
Afonin, Sergii
Brehm, Marius
Höpfner, Julius
Liu, Xinyong
Hopf, Carsten
Popova, Anna A.
Levkin, Pavel
Source Creation 2024
Publishers
Karlsruhe Institute of Technology
Production Year 2023
Publication Year 2024
Subject Areas
Name: Biology

Related Identifiers
Identifier: https://publikationen.bibliothek.kit.edu/1000172743
Type: URL
Relation: IsIdenticalTo