196080-79-2Relevant academic research and scientific papers
Mg-Cu bimetal system for selective C-F bond activation
Utsumi, Shinya,Katagiri, Toshimasa,Uneyama, Kenji
, p. 84 - 89 (2013/11/06)
Bimetal system of Mg-CuCl in DMI for selective C-F and C-Cl bonds activation has been examined. This article involves (1) a short overview of bimetal system of Mg-metals for selective C-F bond activation, (2) C-F bond activation of alkyl trifluoroacetates
Cu-deposits on Mg metal surfaces promote electron transfer reactions
Utsumi, Shinya,Katagiri, Toshimasa,Uneyama, Kenji
experimental part, p. 1085 - 1091 (2012/03/07)
The enhancement of the electron transfer processes in the Grignard reagent formation-type ring silylation and the defluorination-silylation of perfluoroalkyl benzenes by Cu(0)-deposited Mg metal were confirmed. Microscopic analysis and substituent effects implied a different reduction process in the presence of Cu-deposited Mg metal than in the presence of bare Mg metal.
Selective electrochemical synthesis and reactivity of functional benzylic fluorosilylsynthons
Clavel, Philippe,Lessene, Guillaume,Biran, Claude,Bordeau, Michel,Roques, Nicolas,Trévin, Stéphane,Montauzon, Dominique De
, p. 301 - 310 (2007/10/03)
Electrochemical reductive silylation of meta-(trifluoromethyl)arenes by the sacrificial anode technique selectively led to meta-trimethylsilyldifluoromethylarenes (ArCF2TMS), in the presence of an excess of TMSCl and in a THF/cosolvent mixture
Selective electrosynthesis of (trimethylsilyldifluoro)methylbenzene, a PhCF2-precursor; conditions for a molar scale preparation without HMPA
Clavel,Léger-Lambert,Biran,Serein-Spirau,Bordeau,Roques,Marzouk
, p. 829 - 834 (2007/10/03)
Electrochemical reductive silylation of trifluoromethylbenzene by the sacrificial anode technique selectively led, in a THF/DMPU mixture instead of THF/HMPA and according to the charge passed, to the corresponding mono-, bis- or tris-trimethylsilyl derivatives, respectively PhCF2TMS, PhCF(TMS)2 and PhC(TMS)3. This reaction, without any chemical equivalent, was extended to a molar scale synthesis, using a tubular flow cell.
