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2015 | OriginalPaper | Buchkapitel

Process Development of a Liquid-Liquid Phase Transfer of Colloidal Particles for Production of High-Quality Organosols

verfasst von : Jacqueline V. Erler, Stefanie Machunsky, Steffen Franke, Philipp Grimm, Hans-Joachim Schmid, Urs A. Peuker

Erschienen in: Colloid Process Engineering

Verlag: Springer International Publishing

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Abstract

The emphasis of the study presented is on a new process of particle extraction to transfer magnetite nanoparticles from an aqueous into an immiscible organic phase directly through the liquid-liquid interface. For the production of high-quality organosols, stabilized colloidal and functionalized particles are required in a liquid organic phase. The mechanism of phase transfer is initiated by adsorption and chemical binding of surfactants (fatty acids) at the particle surface. The resulting physico-chemical dispersion of the hydrophobically modified particles leads to the formation of the stabilized organic colloid, or organosol. The aim here is to demonstrate the entire chain of the transfer process in a continuous miniplant, which comprises particle synthesis, conditioning, and transfer, and which uses a drop column for extraction and as a transfer device. Based on the investigation of the governing principles and the material parameters, the results obtained for the transfer kinetics in the individual contact devices (centrifuge, single-drop column, and drop column for different operations) are used for the dimensioning of the entire process chain.

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Fußnoten
1
The particle size is denoted by L to ensure a clear distinction to the mass fraction of surfactant in the solvent x s.
 
2
The Sherwood number is a non-dimensional parameter to describe the ratio between diffusive and convective mass transport.
 
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Metadaten
Titel
Process Development of a Liquid-Liquid Phase Transfer of Colloidal Particles for Production of High-Quality Organosols
verfasst von
Jacqueline V. Erler
Stefanie Machunsky
Steffen Franke
Philipp Grimm
Hans-Joachim Schmid
Urs A. Peuker
Copyright-Jahr
2015
DOI
https://doi.org/10.1007/978-3-319-15129-8_16

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