Kinetics of Micelle Formation and Concentration Fluctuations in Solutions of Short-Chain Surfactants

To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic surfactant solutions are evaluated. Within the measurement frequency range from 100 kHz to 4.6 GHz the spectra reveal a relaxation term that, at...

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Published inThe journal of physical chemistry. B Vol. 115; no. 35; pp. 10470 - 10477
Main Author Kaatze, U
Format Journal Article
LanguageEnglish
Published United States American Chemical Society 08.09.2011
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Abstract To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic surfactant solutions are evaluated. Within the measurement frequency range from 100 kHz to 4.6 GHz the spectra reveal a relaxation term that, at variance with the classical theory of micelle formation, is subject to a broad distribution of relaxation times. Analysis of the shape of this term evidences a coupling between the kinetics of micelle formation/disintegration and noncritical fluctuations in the local concentrations of surfactant monomers, oligomers, and micellar structures. A theoretical model, based on the assumption of a rate process in parallel to the fluctuations, applies well to the broadness of the experimental spectra. An initial increase in the concentration dependence of the principle relaxation time above the cmc is compatible with the high content of oligomers but is more distinctive than predicted by an extended model of micelle formation. The dependence of the relaxation amplitude upon surfactant concentration indicates incomplete dissociation of counterions. An additional high-frequency wing in the spectra is assigned to different structure factors of monomers and micelles. It may, however, also contain contributions from relaxations due to the formation/disintegration kinetics of oligomers and to the structural isomerization of surfactant alkyl chains.
AbstractList To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic surfactant solutions are evaluated. Within the measurement frequency range from 100 kHz to 4.6 GHz the spectra reveal a relaxation term that, at variance with the classical theory of micelle formation, is subject to a broad distribution of relaxation times. Analysis of the shape of this term evidences a coupling between the kinetics of micelle formation/disintegration and noncritical fluctuations in the local concentrations of surfactant monomers, oligomers, and micellar structures. A theoretical model, based on the assumption of a rate process in parallel to the fluctuations, applies well to the broadness of the experimental spectra. An initial increase in the concentration dependence of the principle relaxation time above the cmc is compatible with the high content of oligomers but is more distinctive than predicted by an extended model of micelle formation. The dependence of the relaxation amplitude upon surfactant concentration indicates incomplete dissociation of counterions. An additional high-frequency wing in the spectra is assigned to different structure factors of monomers and micelles. It may, however, also contain contributions from relaxations due to the formation/disintegration kinetics of oligomers and to the structural isomerization of surfactant alkyl chains.
To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic surfactant solutions are evaluated. Within the measurement frequency range from 100 kHz to 4.6 GHz the spectra reveal a relaxation term that, at variance with the classical theory of micelle formation, is subject to a broad distribution of relaxation times. Analysis of the shape of this term evidences a coupling between the kinetics of micelle formation/disintegration and noncritical fluctuations in the local concentrations of surfactant monomers, oligomers, and micellar structures. A theoretical model, based on the assumption of a rate process in parallel to the fluctuations, applies well to the broadness of the experimental spectra. An initial increase in the concentration dependence of the principle relaxation time above the cmc is compatible with the high content of oligomers but is more distinctive than predicted by an extended model of micelle formation. The dependence of the relaxation amplitude upon surfactant concentration indicates incomplete dissociation of counterions. An additional high-frequency wing in the spectra is assigned to different structure factors of monomers and micelles. It may, however, also contain contributions from relaxations due to the formation/disintegration kinetics of oligomers and to the structural isomerization of surfactant alkyl chains.To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic surfactant solutions are evaluated. Within the measurement frequency range from 100 kHz to 4.6 GHz the spectra reveal a relaxation term that, at variance with the classical theory of micelle formation, is subject to a broad distribution of relaxation times. Analysis of the shape of this term evidences a coupling between the kinetics of micelle formation/disintegration and noncritical fluctuations in the local concentrations of surfactant monomers, oligomers, and micellar structures. A theoretical model, based on the assumption of a rate process in parallel to the fluctuations, applies well to the broadness of the experimental spectra. An initial increase in the concentration dependence of the principle relaxation time above the cmc is compatible with the high content of oligomers but is more distinctive than predicted by an extended model of micelle formation. The dependence of the relaxation amplitude upon surfactant concentration indicates incomplete dissociation of counterions. An additional high-frequency wing in the spectra is assigned to different structure factors of monomers and micelles. It may, however, also contain contributions from relaxations due to the formation/disintegration kinetics of oligomers and to the structural isomerization of surfactant alkyl chains.
Author Kaatze, U
AuthorAffiliation Georg-August-Universität Göttingen
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Snippet To study the kinetics of surfactant systems below, at, and above the critical micelle concentration cmc, broad-band ultrasonic spectra of short-chain ionic...
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SubjectTerms B: Surfactants, Membranes
Fluctuation
Formations
Kinetics
Mathematical models
Micelles
Oligomers
Relaxation time
Solutions
Spectra
Surface-Active Agents - chemistry
Surfactants
Ultrasonics
Title Kinetics of Micelle Formation and Concentration Fluctuations in Solutions of Short-Chain Surfactants
URI http://dx.doi.org/10.1021/jp205372g
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