Small molecule photocatalysis enables drug target identification via energy transfer

小分子 药物发现 计算生物学 化学 组合化学 纳米技术 生物 材料科学 生物化学
作者
Aaron Trowbridge,Ciaran P. Seath,Frances P. Rodriguez‐Rivera,Beryl X. Li,Barbara E. Dul,Adam G. Schwaid,Benito F. Buksh,Jacob B. Geri,James V. Oakley,Olugbeminiyi Fadeyi,Rob Oslund,Keun Ah Ryu,Cory White,Tamara Reyes Robles,Paul Tawa,Dann L. Parker,David W. C. MacMillan
出处
期刊:Proceedings of the National Academy of Sciences of the United States of America [National Academy of Sciences]
卷期号:119 (34) 被引量:47
标识
DOI:10.1073/pnas.2208077119
摘要

Over half of new therapeutic approaches fail in clinical trials due to a lack of target validation. As such, the development of new methods to improve and accelerate the identification of cellular targets, broadly known as target ID, remains a fundamental goal in drug discovery. While advances in sequencing and mass spectrometry technologies have revolutionized drug target ID in recent decades, the corresponding chemical-based approaches have not changed in over 50 y. Consigned to outdated stoichiometric activation modes, modern target ID campaigns are regularly confounded by poor signal-to-noise resulting from limited receptor occupancy and low crosslinking yields, especially when targeting low abundance membrane proteins or multiple protein target engagement. Here, we describe a broadly general platform for photocatalytic small molecule target ID, which is founded upon the catalytic amplification of target-tag crosslinking through the continuous generation of high-energy carbene intermediates via visible light-mediated Dexter energy transfer. By decoupling the reactive warhead tag from the small molecule ligand, catalytic signal amplification results in unprecedented levels of target enrichment, enabling the quantitative target and off target ID of several drugs including (+)-JQ1, paclitaxel (Taxol), dasatinib (Sprycel), as well as two G-protein-coupled receptors—ADORA2A and GPR40.

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