162468-84-0Relevant articles and documents
Selective Class i HDAC Inhibitors Based on Aryl Ketone Zinc Binding Induce HIV-1 Protein for Clearance
Barnard, Richard J. O.,Carroll, Steve,Chung, Christine C.,Clausen, Dane,Duffy, Joseph L.,Fells, James,Holloway, M. Katharine,Howell, Bonnie J.,Kelly, Joseph,Kim, Hyunjin,Klein, Daniel J.,Kozlowski, Joseph A.,Liu, Jian,Myers, Robert W.,Wu, Guoxin,Wu, Jin,Yu, Wensheng,Yu, Younong
, p. 1476 - 1483 (2020)
HIV persistence in latently infected, resting CD4+ T cells is broadly considered a barrier to eradicate HIV. Activation of the provirus using latency-reversing agents (LRAs) followed by immune-mediated clearance to purge reservoirs has been touted as a promising therapeutic approach. Histone deacetylases (HDACs) and histone acetyltransferases (HATs) control the acetylation level of lysine residues in histones to regulate the gene transcription. Several clinical HDAC inhibitors had been examined as LRAs, which induced HIV activation in vitro and in vivo. Here we report the discovery of a series of selective and potent class I HDAC inhibitors based on aryl ketones as a zinc binding group, which reversed HIV latency using a Jurkat model of HIV latency in 2C4 cells. The SAR led to the discovery of a highly selective class I HDAC inhibitor 10 with excellent potency. HDACi 10 induces the HIV gag P24 protein in patient latent CD4+ T cells.
Synthesis and evaluation of the 2-aminothiazoles as anti-tubercular agents
Kesicki, Edward A.,Bailey, Mai A.,Ovechkina, Yulia,Early, Julie V.,Alling, Torey,Bowman, Julie,Zuniga, Edison S.,Dalai, Suryakanta,Kumar, Naresh,Masquelin, Thierry,Hipskind, Philip A.,Odingo, Joshua O.,Parish, Tanya
, (2016/06/01)
The 2-aminothiazole series has anti-bacterial activity against the important global pathogen Mycobacterium tuberculosis. We explored the nature of the activity by designing and synthesizing a large number of analogs and testing these for activity against M. tuberculosis, as well as eukaryotic cells. We determined that the C-2 position of the thiazole can accommodate a range of lipophilic substitutions, while both the C-4 position and the thiazole core are sensitive to change. The series has good activity against M. tuberculosis growth with sub-micromolar minimum inhibitory concentrations being achieved. A representative analog was selective for mycobacterial species over other bacteria and was rapidly bactericidal against replicating M. tuberculosis. The mode of action does not appear to involve iron chelation. We conclude that this series has potential for further development as novel antitubercular agents.
