Generation of superoxide ion in 1-butyl-1-methylpyrrolidinium trifluoroacetate and its application in the destruction of chloroethanes
-
Add time:07/19/2019 Source:sciencedirect.com
Ionic liquids (ILs) have attracted the curiosity of researchers due to their unique properties in different applications such as separation, extraction, purification, catalysis and electrochemical applications. The generation of superoxide ion (O2−) in ILs is one of these interesting areas. In this work O2− was generated and analyzed electrochemically using cyclic voltammetry and chronoamperometry techniques from O2 dissolved in 1-butyl-1-methylpyrrolidinium trifluoroacetate, [BMPyrr][TFA]. Moreover, O2− was generated chemically by the addition of potassium superoxide (KO2) into the same IL. UV/Vis spectrophotometer was used for testing the stability of the generated O2− and GC/MS was used to investigate any possible reaction between [BMPyrr][TFA] and O2−. For our best knowledge this is the first time that trifluoroacetate based IL was used for the generation of O2−. The results showed that O2− was very stable in this IL. This encourages further investigation on the use of this particular class of ILs in diverse applications involving the O2−. The chemically generated O2− by dissolving KO2 was then used for the destruction of hexachloroethane in [BMPyrr][TFA] under ambient conditions. The destruction percentage was higher than 98%. This work presents the first attempt to utilize KO2 for destruction of chloroethanes in ILs.
We also recommend Trading Suppliers and Manufacturers of AMMONIUM TRIFLUOROACETATE (cas 3336-58-1). Pls Click Website Link as below: cas 3336-58-1 suppliers
Prev:Synthesis, spectroscopic characterization and acoustic, volumetric, transport and thermal properties of hydroxyl ammonium based ionic liquids
Next:Mercury trifluoroacetate-catalyzed conversion of Se-alkyl phosphoroselenolates into the corresponding phosphates) - 【Back】【Close 】【Print】【Add to favorite 】
- Related Information
- Small, mobile, persistent: Trifluoroacetate in the water cycle – Overlooked sources, pathways, and consequences for drinking water supply07/22/2019
- The reactions of palladium(II), thallium(III) and lead(IV) trifluoroacetates with 3β-acetoxyandrost-5-en-17-one: crystal structure of the first trifluoroacetate bridged 5,6,7-π-allyl steroid palladium dimer07/20/2019
- Mercury trifluoroacetate-catalyzed conversion of Se-alkyl phosphoroselenolates into the corresponding phosphates07/21/2019
- Synthesis, spectroscopic characterization and acoustic, volumetric, transport and thermal properties of hydroxyl ammonium based ionic liquids07/18/2019
- Determination of residual trifluoroacetate in protein purification buffers and peptide preparations by ion chromatography07/17/2019
- Synthesis, characterization, and antifungal property of chitosan ammonium salts with halogens07/16/2019
- Comparative study of the physical and electrochemical behavior of direct N-SO3H functionalized 1, 3-disulfo-2-alkyl-imidazolium trifluoroacetate ionic liquids in molecular solvents07/15/2019
- Ammonium haloacetates – An alternative to glyphosate?07/14/2019
- Enhanced trifluoroacetate removal from groundwater by quaternary nitrogen-grafted granular activated carbon07/13/2019
-
Health and Chemical more >
-
Related Products
- Ammonium (-)-3-bromo-8-camphorsulfonate
- Ammonium (S)-5-((4-amino-4-carboxy-1-oxobutyl)amino)-2-nitrobenzoate
- Ammonium 1-pyrrolidinedithiocarbamate
- Ammonium 2,4-dichlorophenoxyacetate
- Ammonium 2-hydroxyethanesulphonate
- Ammonium 4-nitrobenzoate dihydrate
- Ammonium acetate
- Ammonium adipate
- Ammonium alginate
- Ammonium azide


