The intercalation of organoammonium cations into smectite structure is the important step in the technology of non-linear optical materials. In this study we investigated the structure of montmorillonite (MMT), intercalated with two organoammonium cations : tetramethylammonium (TMA) and trimethylphenylammonium (TMPA) using molecular mechanics simulations. The studies were focused to following aspects: arrangement of organoammonium cations in the interlayer, their positions and orientation with respect to silicate layers and their anchoring to the layers. The calculated (basal) d-spacings for MMT with TMA 14.29 Å and 15.36 Å for MMT with TMPA are in good agreement with X-ray diffraction data
Molecular simulation techniques are used to find the basal spacing of organoclay on the basis of the...
International audienceOrganoclays represent a special challenge for molecular simulations because th...
The intercalation of the μ-oxo Fe(III)-phenanthroline 1:1 complex [(OH2)3(Phen)FeOFe(Phen)(OH2)3]+4 ...
Combination of molecular simulations with x-ray powder diffraction and TR spectroscopy has been used...
It is well known that the intercalation of montmorillonite (Mt) with organic cations is a fast proce...
This study uses molecular dynamics (MD) modeling to examine the interlayer microstructures of montmo...
The intercalation process and the structure of montmorillonite intercalated with [rhodamine B](+) ca...
Intercalation of a wide variety of alkylammonium cations into the interlayer spaces of swelling clay...
Three n-alkylammonium salts of varying alkyl chain length were ion exchanged with montmorillonites (...
Intercalation of a wide variety of alkylammonium cations into the interlayer spaces of swelling clay...
The intercalation of the μ-oxo Fe(III)-phenanthroline 1:1 complex [(OH2)3(Phen)FeOFe(Phen)(OH2)...
Abstract--The Crystal Packer module in the Cerius 2 modeling environment has been used to study the ...
Classical molecular dynamics (MD) simulations have been performed to investigate the effects of subs...
The structure and dynamics of alkylammonium-intercalated smectites were simulated using molecular dy...
The structure and dynamics of alkylammonium-intercalated smectites were simulated using molecular dy...
Molecular simulation techniques are used to find the basal spacing of organoclay on the basis of the...
International audienceOrganoclays represent a special challenge for molecular simulations because th...
The intercalation of the μ-oxo Fe(III)-phenanthroline 1:1 complex [(OH2)3(Phen)FeOFe(Phen)(OH2)3]+4 ...
Combination of molecular simulations with x-ray powder diffraction and TR spectroscopy has been used...
It is well known that the intercalation of montmorillonite (Mt) with organic cations is a fast proce...
This study uses molecular dynamics (MD) modeling to examine the interlayer microstructures of montmo...
The intercalation process and the structure of montmorillonite intercalated with [rhodamine B](+) ca...
Intercalation of a wide variety of alkylammonium cations into the interlayer spaces of swelling clay...
Three n-alkylammonium salts of varying alkyl chain length were ion exchanged with montmorillonites (...
Intercalation of a wide variety of alkylammonium cations into the interlayer spaces of swelling clay...
The intercalation of the μ-oxo Fe(III)-phenanthroline 1:1 complex [(OH2)3(Phen)FeOFe(Phen)(OH2)...
Abstract--The Crystal Packer module in the Cerius 2 modeling environment has been used to study the ...
Classical molecular dynamics (MD) simulations have been performed to investigate the effects of subs...
The structure and dynamics of alkylammonium-intercalated smectites were simulated using molecular dy...
The structure and dynamics of alkylammonium-intercalated smectites were simulated using molecular dy...
Molecular simulation techniques are used to find the basal spacing of organoclay on the basis of the...
International audienceOrganoclays represent a special challenge for molecular simulations because th...
The intercalation of the μ-oxo Fe(III)-phenanthroline 1:1 complex [(OH2)3(Phen)FeOFe(Phen)(OH2)3]+4 ...