Foundations of Colloid Science, Volume 2While Volume I stands as an essentially complete advanced textbook of colloidal science, Volume II extends the material to include important new areas, and develops some of the topics in much greater depth. An introductory chapter on the theory of liquids describes the concept of correlation functions and the use of Fourier transforms to analyse the scattering of light and neutrons by colloidal systems. Absorption is given detailed coverage and a chapter on electrokinetics introduces a new approach to time-dependent processes in the double layer. The principles of double layer theory are also used to review the behavior of thin films and emulsions. A final chapter on the rheology of colloidal suspensions calls on many of the concepts developed earlier to bring some cohesion to this important and rapidly developing field. |
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Page 801
The relevance of this problem to colloidal electrokinetic effects will be
demonstrated in the next section . The equations for h and g are of course the
same as in the previous problem . The difference lies in the boundary conditions
which in this ...
The relevance of this problem to colloidal electrokinetic effects will be
demonstrated in the next section . The equations for h and g are of course the
same as in the previous problem . The difference lies in the boundary conditions
which in this ...
Page 803
3 Application to a colloidal problem The problem dealt with in Section 13 . 5 . 2
provides us with a simplified version of the processes which occur in real thin
double layer systems . As an illustration , consider the case of an isolated
spherical ...
3 Application to a colloidal problem The problem dealt with in Section 13 . 5 . 2
provides us with a simplified version of the processes which occur in real thin
double layer systems . As an illustration , consider the case of an isolated
spherical ...
Page 818
Similar forms can be derived for the other unknowns in the problem . Substitution
of these forms in the electrokinetic equations then yields a set of ordinary
differential equations for the functions such as A ( r ) . ( O ' Brien & White 1978 ) .
Similar forms can be derived for the other unknowns in the problem . Substitution
of these forms in the electrokinetic equations then yields a set of ordinary
differential equations for the functions such as A ( r ) . ( O ' Brien & White 1978 ) .
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Contents
Contents of Volume I | 675 |
ADSORPTION FROM SOLUTION | 709 |
THE ELECTROKINETIC EFFECTS 786 13 THE ELECTROKINETIC EFFECTS | 786 |
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Common terms and phrases
adsorbed adsorption applied approach approximation assumed average becomes behaviour bulk calculated Chapter charge Chem Colloid interface Sci colloidal component concentration constant correlation corresponding density depends described determined developed direction discussed dispersion distance double layer droplets effect electrical electrokinetic electrolyte emulsion energy equation equilibrium estimate et al example Exercise experimental expression factor field film flow fluid force fraction function given gives groups important increases interaction interface involved ions limit liquid material measured microemulsion molecules Note observed obtained occur pair parameters particles phase positive possible potential present pressure problem procedure radius range reduces referred region result scattering Section separation shear rate shown solution specific spheres stability stress structure surface surface charge surface tension suspension theory thin usually values viscosity volume zero