6631-69-2Relevant articles and documents
DNAzymes for amine and peptide lysine acylation
Yao, Tianjiong,Przybyla, Jack J.,Yeh, Peter,Woodard, Austin M.,Nilsson, Hannah J.,Brandsen, Benjamin M.,Silverman, Scott K.
, p. 171 - 181 (2021)
DNAzymes were previously identified by in vitro selection for a variety of chemical reactions, including several biologically relevant peptide modifications. However, finding DNAzymes for peptide lysine acylation is a substantial challenge. By using suita
Transition-Metal-Free Borylation of Alkyl Iodides via a Radical Mechanism
Liu, Qianyi,Hong, Junting,Sun, Beiqi,Bai, Guangcan,Li, Feng,Liu, Guoquan,Yang, Yang,Mo, Fanyang
supporting information, (2019/07/08)
We describe an operationally simple transition-metal-free borylation of alkyl iodides. This method uses commercially available diboron reagents as the boron source and exhibits excellent functional group compatibility. Furthermore, a diverse range of prim
Indium(III)-catalyzed reductive bromination and iodination of carboxylic acids to alkyl bromides and iodides: Scope, mechanism, and one-pot transformation to alkyl halides and amine derivatives
Moriya, Toshimitsu,Yoneda, Shinichiro,Kawana, Keita,Ikeda, Reiko,Konakahara, Takeo,Sakai, Norio
, p. 10642 - 10650 (2013/11/19)
Highly effective indium(III)-catalyzed reductive bromination or iodination of a variety of carboxylic acids with 1,1,3,3-tetramethyldisiloxane (TMDS) and a source of bromine or iodine is described. This functional group interconversion has high tolerance for several functional groups, such as halogens, a hydroxy group, a nitro group, an olefin part, and a sulfide moiety. This indium catalytic system is also applicable to the reductive iodination of aldehyded, acyl chlorides, and esters. Furthermore, this reducing system can be applied to the one-pot synthesis of alkyl halides and amine derivatives via the addition of nucleophiles. Insight into the reaction mechanism was gained via the time course of 1H and 13C NMR monitoring experiments and the corresponding stepwise reactions.