Phospshoinositide 3-Kinase (PI3K)/Mammalian Target of Rapamycin (mTOR) Dual Inhibitors: Discovery and Structure–Activity Relationships of a Series of Quinoline and Quinoxaline Derivatives

Nobuko Nishimura(Amgen (United States)), Aaron Siegmund(Amgen (United States)), Longbin Liu(Amgen (United States)), Kevin Yang(Amgen (United States)), Marian C. Bryan(Amgen (United States)), Kristin L. Andrews(Amgen (United States)), Yunxin Bo(Amgen (United States)), Shon K. Booker(Amgen (United States)), Sean Caenepeel(Amgen (United States)), Daniel J. Freeman(Amgen (United States)), Hongyu Liao(Amgen (United States)), John D. McCarter(Amgen (United States)), Erin L. Mullady(Amgen (United States)), Tisha San Miguel(Amgen (United States)), Raju Subramanian(Amgen (United States)), Nuria Tamayo(Amgen (United States)), Ling Wang(Amgen (United States)), Douglas A. Whittington(Amgen (United States)), Leeanne Zalameda(Amgen (United States)), Nancy R. Zhang(Amgen (United States)), Paul E. Hughes(Amgen (United States)), Mark H. Norman(Amgen (United States))
Journal of Medicinal Chemistry
May 25, 2011
Cited by 60Open Access
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Abstract

The phosphoinositide 3-kinase (PI3K) family catalyzes the ATP-dependent phosphorylation of the 3'-hydroxyl group of phosphatidylinositols and plays an important role in cell growth and survival. There is abundant evidence demonstrating that PI3K signaling is dysregulated in many human cancers, suggesting that therapeutics targeting the PI3K pathway may have utility for the treatment of cancer. Our efforts to identify potent, efficacious, and orally available PI3K/mammalian target of rapamycin (mTOR) dual inhibitors resulted in the discovery of a series of substituted quinolines and quinoxalines derivatives. In this report, we describe the structure-activity relationships, selectivity, and pharmacokinetic data of this series and illustrate the in vivo pharmacodynamic and efficacy data for a representative compound.


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