| Literature DB >> 26562224 |
Zining Wu1, Todd L Graybill1, Xin Zeng1, Michael Platchek1, Jean Zhang2, Vera Q Bodmer1, David D Wisnoski1, Jianghe Deng1, Frank T Coppo1, Gang Yao2, Alex Tamburino2, Genaro Scavello1, G Joseph Franklin2, Sibongile Mataruse2, Katie L Bedard2, Yun Ding2, Jing Chai2, Jennifer Summerfield2, Paolo A Centrella2, Jeffrey A Messer2, Andrew J Pope1, David I Israel2.
Abstract
DNA-encoded small-molecule library technology has recently emerged as a new paradigm for identifying ligands against drug targets. To date, this technology has been used with soluble protein targets that are produced and used in a purified state. Here, we describe a cell-based method for identifying small-molecule ligands from DNA-encoded libraries against integral membrane protein targets. We use this method to identify novel, potent, and specific inhibitors of NK3, a member of the tachykinin family of G-protein coupled receptors (GPCRs). The method is simple and broadly applicable to other GPCRs and integral membrane proteins. We have extended the application of DNA-encoded library technology to membrane-associated targets and demonstrate the feasibility of selecting DNA-tagged, small-molecule ligands from complex combinatorial libraries against targets in a heterogeneous milieu, such as the surface of a cell.Entities:
Keywords: DNA encoded chemical library; G-protein coupled receptor; affinity selection; cell-associated target protein; combinatorial chemistry; drug discovery
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Year: 2015 PMID: 26562224 DOI: 10.1021/acscombsci.5b00124
Source DB: PubMed Journal: ACS Comb Sci ISSN: 2156-8944 Impact factor: 3.784