67438-11-3Relevant academic research and scientific papers
Nickel-catalyzed reductive aryl thiocarbonylation of alkene via thioester group transfer strategy
Feng, Yunxia,Yang, Shimin,Zhao, Shen,Zhang, Dao-Peng,Li, Xinjin,Liu, Hui,Dong, Yunhui,Sun, Feng-Gang
supporting information, p. 6734 - 6738 (2020/09/15)
Herein reported is a nickel-catalyzed reductive aryl thiocarbonylation of alkene via thioester group transfer strategy by using simple and readily available thioesters. In contrast to traditional activation of weaker C(acyl)-S bond, the C(acyl)-C bond of
Metal-free thioesterification of amides generating acyl thioesters
Wang, Qun,Liu, Long,Dong, Jianyu,Tian, Zhibin,Chen, Tieqiao
supporting information, p. 9384 - 9388 (2019/06/21)
A base-initiated thioesterification of amides with various thiols is reported. This reaction can take place efficiently under metal-free and air-atmospheric conditions, and provides a facile and practically useful approach to the synthesis of valuable acy
Ligand-Controlled Divergent Cross-Coupling Involving Organosilicon Compounds for Thioether and Thioester Synthesis
Qiao, Zongjun,Jiang, Xuefeng
supporting information, p. 1550 - 1553 (2016/05/02)
A divergent cross-coupling for both thioether and thioester construction from organosilicon compounds has been developed. Predominant selectivity for Hiyama-type coupling and C1 insertion reaction was achieved under the guidance of ligands. Thioether was obtained under ligand-free conditions in which disulfide generated from homocoupling could be prevented. Meanwhile, application of bidentate phosphine ligands under carbon monoxide atmosphere (CO balloon) afforded the thioester with little decomposition, which was revealed through interval NMR tracking.
Sulfide Oxidation and Oxidative Hydrolysis of Thioesters by Peroxymonosulfate Ion
Bunton, Clifford A.,Foroudian, Houshang J.,Kumar, Anurag
, p. 33 - 40 (2007/10/02)
Peroxymonosulfate ion, HSO5-, as OXONE, in aqueous MeCN readily converts aryl thiobenzoates, XC6H4CO*SC6H4Z (X = p-OMe, p-Me, H, p-Cl, p-CN; Z = p-OMe, p-Me, H, m-OMe, p-Cl, m-Cl, p-NO2) into carboxylic and sulfonic acids.Reactions are second order and have small substituent effects, with ρ ca. -0.6 based on ?m and ?p substituent parameters, but rates increase markedly with increasing water content in aqueous MeCN and entropies of activation are negative.The initial step is very similar to the oxidation of methyl aryl sulfides by HSO5- which has similar solvent and substituent effects.Enthalpies of activation are much lower for oxidation of the sulfides than of the corresponding esters but entropies of activation are similar.
