882679-10-9Relevant articles and documents
Discovery of acylsulfonohydrazide-derived inhibitors of the lysine acetyltransferase, kat6a, as potent senescence-inducing anti-cancer agents
Priebbenow, Daniel L.,Leaver, David J.,Nguyen, Nghi,Cleary, Benjamin,Lagiakos, H. Rachel,Sanchez, Julie,Xue, Lian,Huang, Fei,Sun, Yuxin,Mujumdar, Prashant,Mudududdla, Ramesh,Varghese, Swapna,Teguh, Silvia,Charman, Susan A.,White, Karen L.,Shackleford, David M.,Katneni, Kasiram,Cuellar, Matthew,Strasser, Jessica M.,Dahlin, Jayme L.,Walters, Michael A.,Street, Ian P.,Monahan, Brendon J.,Jarman, Kate E.,Jousset Sabroux, Helene,Falk, Hendrik,Chung, Matthew C.,Hermans, Stefan J.,Downer, Natalie L.,Parker, Michael W.,Voss, Anne K.,Thomas, Tim,Baell, Jonathan B.
, p. 4655 - 4684 (2020/06/08)
A high-throughput screen designed to discover new inhibitors of histone acetyltransferase KAT6A uncovered CTX-0124143 (1), a unique aryl acylsulfonohydrazide with an IC50 of 1.0 μM. Using this acylsulfonohydrazide as a template, we herein disclose the results of our extensive structure-activity relationship investigations, which resulted in the discovery of advanced compounds such as 55 and 80. These two compounds represent significant improvements on our recently reported prototypical lead WM-8014 (3) as they are not only equivalently potent as inhibitors of KAT6A but are less lipophilic and significantly more stable to microsomal degradation. Furthermore, during this process, we discovered a distinct structural subclass that contains key 2-fluorobenzenesulfonyl and phenylpyridine motifs, culminating in the discovery of WM-1119 (4). This compound is a highly potent KAT6A inhibitor (IC50 = 6.3 nM; KD = 0.002 μM), competes with Ac-CoA by binding to the Ac-CoA binding site, and has an oral bioavailability of 56% in rats.
Mesoporous silicon oxide nanoparticle controlled release system as well as preparation method and application thereof
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Paragraph 0238-0240, (2020/12/08)
The invention relates to a mesoporous silicon oxide nanoparticle controlled release system as well as a preparation method and application thereof, and particularly provides a mesoporous silicon dioxide nanomaterial capable of being used for controlled re
Iron catalysis and water: A synergy for refunctionalization of boron
Wood, John L.,Marciasini, Ludovic D.,Vaultier, Michel,Pucheault, Mathieu
supporting information, p. 551 - 555 (2014/03/21)
A new catalytic system has been optimized to promote the conversion of boron species into others. FeCl3 associated with imidazole and water favors boron refunctionalization under mild conditions. Georg Thieme Verlag Stuttgart New York.