Yapay Zeka Hızlı Bakış & Çıkarımlar
AI InsightIn this study the mass transfer resistances of 10B and 11B isotopes are determined for chelating resin of different particle diameter and weak base anion exchange resin.Keywords: Mass Transfer Resistances, General Rate Model, Boron Isotopes, Chelating Resin, Weak Base Anion Exchange Resin
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Abstract
AbstractThe successful design and the operation of chromatographic separations require the optimization of a large number of parameters which affect the separation in a usually nonlinear and interacting fashion. Additionally, modeling studies of chromatographic separations allow prediction of the dynamic behavior of the solute in the column against different operating alternatives without experimental effort, as well as scaling up the separation process. Thus the model based understanding of chromatographic separation, largely prevents the inconveniences of experimenting with the real process whether the operation is batch or continuous. There are several models to be used for chromatographic separations whether it is at the analytical scale or at the preparative/production scale, including the ideal model, the equilibrium dispersive model, the transport dispersive model and the general rate (GR) model. The GR model is widely acknowledged as being the most comprehensive among the chromatography models available in the literature as it accounts for axial dispersion and all the mass transfer resistances, e.g. external mass transfer of solute molecules from bulk phase to the external surface of the adsorbent, diffusion of the solute molecules through the particle, and adsorption-desorption processes on the site of the particles. In this study the mass transfer resistances of 10B and 11B isotopes are determined for chelating resin of different particle diameter and weak base anion exchange resin.Keywords: Mass Transfer Resistances, General Rate Model, Boron Isotopes, Chelating Resin, Weak Base Anion Exchange Resin