Foundations of Colloid Science, Volume 2 |
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Page 787
The double layer is then assumed to retain its equilibrium charge distribution
even when the field is applied . In this chapter we aim to remove that restriction ,
but before doing so we will outline some of the other extensions of the theory ...
The double layer is then assumed to retain its equilibrium charge distribution
even when the field is applied . In this chapter we aim to remove that restriction ,
but before doing so we will outline some of the other extensions of the theory ...
Page 805
By analogy with the estimate of a ? / D for the diffusion layer relaxation time , we
therefore expect that the velocity field will adjust to a change in the body force
distribution in the double layer in a time of order aʻpeln . This turns out to be
correct ...
By analogy with the estimate of a ? / D for the diffusion layer relaxation time , we
therefore expect that the velocity field will adjust to a change in the body force
distribution in the double layer in a time of order aʻpeln . This turns out to be
correct ...
Page 870
14 . 5 . 4 . Vectors relevant to magnetic scattering when Q is ( a ) perpendicular to
the applied field H ; and ( b ) parallel to H . parallel to the field . Consider a
magnetic moment , S , which is at some small angle to the field ( Fig . 14 . 5 . 4 ) .
14 . 5 . 4 . Vectors relevant to magnetic scattering when Q is ( a ) perpendicular to
the applied field H ; and ( b ) parallel to H . parallel to the field . Consider a
magnetic moment , S , which is at some small angle to the field ( Fig . 14 . 5 . 4 ) .
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Contents
INTRODUCTION TO STATISTICAL MECHANICS | 675 |
ADSORPTION FROM SOLUTION | 709 |
THE ELECTROKINETIC EFFECTS | 786 |
Copyright | |
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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 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 temperature theory thin usually values viscosity volume zero