Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
7612830 | Journal of Chromatography A | 2014 | 62 Pages |
Abstract
The idea of using diamond and diamond containing materials in separation sciences has attracted a strong interest in the past decade. The combination of a unique range of properties, such as chemical inertness, mechanical, thermal and hydrolytic stability, excellent thermal conductivity with minimal thermal expansion and intriguing adsorption properties makes diamond a promising material for use in various modes of chromatography. This review summarises the recent research on the preparation of diamond and diamond based stationary phases, their properties and chromatographic performance. Special attention is devoted to the dominant retention mechanisms evident for particular diamond containing phases, and their subsequent applicability to various modes of chromatography, including chromatography carried out under conditions of high temperature and pressure.
Keywords
LbLChemical vapour deposition diamondPS-DVBNP-HPLCMPCVDCZEHETPHPHTPGCDNDRP-HPLCUHPLCSPEPAASWCNTFCCPTFEBrunauer–Emmett–TellerDFTHeight equivalent to a theoretical plateSolid phase extractiondiamondCapillary zone electrophoresisParticle sizeDetonation nanodiamondTrinitrotolueneTnTAdsorbentsCVDBETFTIRUltraviolet spectroscopyinductively coupled plasma–mass spectrometryX-ray photoelectron spectroscopyFourier transform infrared spectroscopyXPSICP-MSUltrasoundLayer-by-layerface-centered cubicNanodiamondSingle wall carbon nanotubeDensity functional theoryHILICZeta potentialPoly(allylamine)Poly(styrene-divinylbenzene)polyethylene glycolpolytetrafluoroethylenePEGCompositesPorous graphitic carbonChromatographyReversed phase high performance liquid chromatographyUltra High Performance Liquid Chromatographyhydrophilic interaction liquid chromatographyIon-exchange chromatographyGas chromatography
Related Topics
Physical Sciences and Engineering
Chemistry
Analytical Chemistry
Authors
Anton A. Peristyy, Olga N. Fedyanina, Brett Paull, Pavel N. Nesterenko,