Surfactant Aggregation

John H Clint

ISBN 10: 0216929059 / ISBN 13: 9780216929050

Published by Springer Okt 1991, 1991

About this Item

Neuware - 1 Nature of Surfactants.- 1.1 Introduction to surfactants.- 1.2 Natural surfactants.- 1.3 Synthetic surfactants.- 1.4 Types of surfactant.- 1.4.1 Hydrophilic groups.- 1.4.2 Hydrophobic groups.- 1.5 Surface activity.- 1.5.1 Self-association.- 1.5.2 The hydrophobic effect.- References.- 2 Adsorption at liquid interfaces.- 2.1 Introduction.- 2.2 Direct measurement of amount adsorbed.- 2.3 Adsorption studied via surface and interfacial tension measurement.- 2.4 Adsorption of ionic surfactants.- 2.4.1 No added electrolyte.- 2.4.2 Ionic surfactant with excess electrolyte.- 2.5 Equations of state for adsorbed surfactants.- 2.6 Adsorption at the liquid/liquid interface.- 2.7 Ultra-low interfacial tensions.- 2.7.1 Prediction of emulsion type from packing geometry.- 2.7.2 Phase inversion.- 2.7.3 Tensions at curved and planar interfaces.- 2.7.4 Interactions between adsorbed monolayers.- 2.7.5 Practical applications of ultra-low tension systems.- 2.8 Physical properties of adsorbed monolayers.- 2.9 Dynamic aspects of adsorbed surfactants.- 2.9.1 The Marangoni effect.- References.- 3 Insoluble monolayers.- 3.1 Introduction.- 3.2 Historical background.- 3.2.1 The Langmuir trough and its origin.- 3.2.2 Use of the Langmuir trough.- 3.3 Phase changes and types of film.- 3.3.1 Gaseous films.- 3.3.2 The LE + G region.- 3.3.3 The liquid-expanded region.- 3.3.4 The transition region.- 3.3.5 The liquid-condensed region.- 3.3.6 The solid region.- 3.4 Ionised monolayers.- 3.4.1 Effect of polyvalent counterions.- 3.5 X-ray and neutron scattering.- 3.5.1 Horizontal scattering.- 3.5.2 Vertical scattering.- 3.5.3 Neutron scattering.- 3.6 Dynamic effects.- 3.6.1 Interfacial shear rheology.- 3.6.2 Interfacial dilatational rheology.- 3.6.3 Measurement of surface shear viscosity for insoluble monolayers.- 3.6.4 Measurement of surface dilatational rheological properties.- 3.7 Practical applications of insoluble monolayers.- References.- 4 Langmuir-Blodgett multilayers.- 4.1 Introduction.- 4.2 Historical background.- 4.3 Types of monolayer deposition.- 4.3.1 X-, Y- and Z-films.- 4.3.2 Incomplete deposition.- 4.3.3 Asymmetrical films.- 4.3.4 Polymeric systems.- 4.4 Structure of multilayers.- 4.4.1 Characterisation by simple techniques.- 4.4.2 Low-angle X-ray diffraction.- 4.4.3 Spectroscopic methods.- 4.4.4 Long-range order and homogeneity.- 4.5 Applications of LB films.- 4.5.1 Devices exploiting the insulating properties of the film.- 4.5.2 Applications combining ultra-thin property with useful chemistry.- 4.5.3 Multilayers requiring non-centrosymmetrical structures.- 4.5.4 Supermolecular assemblies and molecular electronics.- 4.5.5 Sensors.- 4.6 Self-assembly systems.- 4.6.1 Self-assembly monolayers.- 4.6.2 Self-assembly multilayers.- References.- 5 Micelle formation.- 5.1 Evidence for micelle formation.- 5.2 Structure of micelles.- 5.2.1 Hartley's model for spherical micelles.- 5.2.2 Simple geometric factors.- 5.2.3 Spherical micelles.- 5.2.4 Cylindrical micelles.- 5.2.5 Counterion binding.- 5.3 Dynamics of micellar aggregation.- 5.3.1 The multiple equilibrium model.- 5.4 The critical micelle concentration (CMC).- 5.4.1 Ionic surfactants.- 5.4.2 Non-ionic surfactants.- 5.4.3 Factors affecting the CMC.- 5.4.4 Methods for measuring the CMC.- 5.5 Thermodynamics of micelle formation.- 5.5.1 Simple thermodynamic theory.- 5.5.2 Experimental data for the thermodynamic parameters of micellisation.- 5.5.3 Mechanism of micelle formation.- 5.6 Solubilisation.- 5.6.1 Polar solubilisates.- 5.6.2 Effect of temperature and electrolyte addition.- 5.7 Applications of micellar solutions.- 5.7.1 Detergency.- 5.7.2 Application of cylindrical micelles.- 5.7.3 Solubilisation.- 5.7.4 Micellar-enhanced ultrafiltration.- 5.7.5 Micellar catalysis.- References.- 6 Mixed-micelle formation.- 6.1 Qualitative observations.- 6.2 Thermodynamics of mixed-micelle formation.- 6.2.1 Surface tensions of surfactant solutions.- 6.3 Thermodynamics of non-ideal mixed-micelle formation.- 6.

Seller Inventory # 9780216929050

Bibliographic Details

• Title: Surfactant Aggregation
• Publisher: Springer Okt 1991
• Publication Date: 1991
• Language: English
• ISBN 10: 0216929059
• ISBN 13: 9780216929050
• Binding: Buch
• Condition: Neu
• Dimensions: 235W x 157H x 22D millimeters 235 millimeters width by 157 millimeters height by 22 millimeters depth
• Weight: 590 grams

About this title

Synopsis

1 Nature of Surfactants.- 1.1 Introduction to surfactants.- 1.2 Natural surfactants.- 1.3 Synthetic surfactants.- 1.4 Types of surfactant.- 1.4.1 Hydrophilic groups.- 1.4.2 Hydrophobic groups.- 1.5 Surface activity.- 1.5.1 Self-association.- 1.5.2 The hydrophobic effect.- References.- 2 Adsorption at liquid interfaces.- 2.1 Introduction.- 2.2 Direct measurement of amount adsorbed.- 2.3 Adsorption studied via surface and interfacial tension measurement.- 2.4 Adsorption of ionic surfactants.- 2.4.1 No added electrolyte.- 2.4.2 Ionic surfactant with excess electrolyte.- 2.5 Equations of state for adsorbed surfactants.- 2.6 Adsorption at the liquid/liquid interface.- 2.7 Ultra-low interfacial tensions.- 2.7.1 Prediction of emulsion type from packing geometry.- 2.7.2 Phase inversion.- 2.7.3 Tensions at curved and planar interfaces.- 2.7.4 Interactions between adsorbed monolayers.- 2.7.5 Practical applications of ultra-low tension systems.- 2.8 Physical properties of adsorbed monolayers.- 2.9 Dynamic aspects of adsorbed surfactants.- 2.9.1 The Marangoni effect.- References.- 3 Insoluble monolayers.- 3.1 Introduction.- 3.2 Historical background.- 3.2.1 The Langmuir trough and its origin.- 3.2.2 Use of the Langmuir trough.- 3.3 Phase changes and types of film.- 3.3.1 Gaseous films.- 3.3.2 The LE + G region.- 3.3.3 The liquid-expanded region.- 3.3.4 The transition region.- 3.3.5 The liquid-condensed region.- 3.3.6 The solid region.- 3.4 Ionised monolayers.- 3.4.1 Effect of polyvalent counterions.- 3.5 X-ray and neutron scattering.- 3.5.1 Horizontal scattering.- 3.5.2 Vertical scattering.- 3.5.3 Neutron scattering.- 3.6 Dynamic effects.- 3.6.1 Interfacial shear rheology.- 3.6.2 Interfacial dilatational rheology.- 3.6.3 Measurement of surface shear viscosity for insoluble monolayers.- 3.6.4 Measurement of surface dilatational rheological properties.- 3.7 Practical applications of insoluble monolayers.- References.- 4 Langmuir-Blodgett multilayers.- 4.1 Introduction.- 4.2 Historical background.- 4.3 Types of monolayer deposition.- 4.3.1 X-, Y- and Z-films.- 4.3.2 Incomplete deposition.- 4.3.3 Asymmetrical films.- 4.3.4 Polymeric systems.- 4.4 Structure of multilayers.- 4.4.1 Characterisation by simple techniques.- 4.4.2 Low-angle X-ray diffraction.- 4.4.3 Spectroscopic methods.- 4.4.4 Long-range order and homogeneity.- 4.5 Applications of LB films.- 4.5.1 Devices exploiting the insulating properties of the film.- 4.5.2 Applications combining ultra-thin property with useful chemistry.- 4.5.3 Multilayers requiring non-centrosymmetrical structures.- 4.5.4 Supermolecular assemblies and molecular electronics.- 4.5.5 Sensors.- 4.6 Self-assembly systems.- 4.6.1 Self-assembly monolayers.- 4.6.2 Self-assembly multilayers.- References.- 5 Micelle formation.- 5.1 Evidence for micelle formation.- 5.2 Structure of micelles.- 5.2.1 Hartley's model for spherical micelles.- 5.2.2 Simple geometric factors.- 5.2.3 Spherical micelles.- 5.2.4 Cylindrical micelles.- 5.2.5 Counterion binding.- 5.3 Dynamics of micellar aggregation.- 5.3.1 The multiple equilibrium model.- 5.4 The critical micelle concentration (CMC).- 5.4.1 Ionic surfactants.- 5.4.2 Non-ionic surfactants.- 5.4.3 Factors affecting the CMC.- 5.4.4 Methods for measuring the CMC.- 5.5 Thermodynamics of micelle formation.- 5.5.1 Simple thermodynamic theory.- 5.5.2 Experimental data for the thermodynamic parameters of micellisation.- 5.5.3 Mechanism of micelle formation.- 5.6 Solubilisation.- 5.6.1 Polar solubilisates.- 5.6.2 Effect of temperature and electrolyte addition.- 5.7 Applications of micellar solutions.- 5.7.1 Detergency.- 5.7.2 Application of cylindrical micelles.- 5.7.3 Solubilisation.- 5.7.4 Micellar-enhanced ultrafiltration.- 5.7.5 Micellar catalysis.- References.- 6 Mixed-micelle formation.- 6.1 Qualitative observations.- 6.2 Thermodynamics of mixed-micelle formation.- 6.2.1 Surface tensions of surfactant solutions.- 6.3 Thermodynamics of non-ideal mixed-micelle formation.- 6.3.1 Mix...

Review

Aims to teach the important principles behind surfactant aggregation and how these can be applied to the various systems which result from such aggregation. - British Book News; In summary, Surfactant Aggregation is a valuable new book. It could serve as a reference or textbook in advanced chemistry courses and it will provide a firm foundation for dealing with application problems - Polymer News; Mathematics has been kept to a minimum, the book is compact, easy to read, has adequate references and is well illustrated with clear diagrams and data... This book is the best reference book available on surfactant theory and should be essential reading for those involved in the manufacture or use of surfactants. - Chemistry in Britain; ...a broad ranging and concise account of surfactants generally. Although the approach is basically one of the fundamental science underlying the behaviour of surfactants, connections are made throughout with industrial applications and living systems. Readers in academia will value this connection. Those in industry will use the book to improve their understanding of the basic principles and as a handy reference for unfamiliar surfactant topics. It will give an ideal overview with both breadth and depth for students and others new to surfactants. Attention to detail is impressive yet the writing style is straightforward and easy to read. References are plentiful and illustrations are helpful...strongly recommended for anyone with an interest of involvement in surfactants - Journal of the Oil and Colour Chemists Association