Colloidal Particles at Liquid InterfacesBernard P. Binks, Tommy S. Horozov Small solid particles adsorbed at liquid interfaces arise in many industrial products and process, such as anti-foam formulations, crude oil emulsions and flotation. They act in many ways like traditional surfactant molecules, but offer distinct advantages. However, the understanding of how these particles operate in such systems is minimal. This book brings together the diverse topics actively being investigated, with contributions from leading experts in the field. After an introduction to the basic concepts and principles, the book divides into two sections. The first deals with particles at planar liquid interfaces, with chapters of an experimental and theoretical nature. The second concentrates on the behaviour of particles at curved liquid interfaces, including particle-stabilized foams and emulsions and new materials derived from such systems. This collection will be of interest to academic researchers and graduate students in chemistry, physics, chemical engineering, pharmacy, food science and materials science. |
Contents
Section 20 | 252 |
Section 21 | 253 |
Section 22 | 255 |
Section 23 | 259 |
Section 24 | 260 |
Section 25 | 316 |
Section 26 | 328 |
Section 27 | 383 |
Section 9 | 108 |
Section 10 | 136 |
Section 11 | 143 |
Section 12 | 152 |
Section 13 | 169 |
Section 14 | 176 |
Section 15 | 209 |
Section 16 | 213 |
Section 17 | 217 |
Section 18 | 225 |
Section 19 | 249 |
Section 28 | 387 |
Section 29 | 445 |
Section 30 | 450 |
Section 31 | 472 |
Section 32 | 475 |
Section 33 | 478 |
Section 34 | 479 |
Section 35 | 480 |
Section 36 | 481 |
Section 37 | 487 |
Other editions - View all
Colloidal Particles at Liquid Interfaces Bernard P. Binks,Tommy S. Horozov No preview available - 2008 |
Colloidal Particles at Liquid Interfaces Bernard P. Binks,Tommy S. Horozov No preview available - 2006 |
Common terms and phrases
adsorbed adsorption aggregation air-water surface aluminium American Chemical Society antifoam globules aqueous assembly Aveyard B.P. Binks bubble surface capillary forces capillary pressure cell wall Chem clusters coalescence Colloid Interf colloidal crystals colloidal particles Colloids Surf concentration contact angle contact line deformation dipoles dispersed drainage effect electrostatic emulsifier emulsion emulsion droplets emulsion stability entry barrier equation equilibrium experimental film surfaces flotation fluid interface foam destruction foam film formation formed free energy froth hexagonal hydrophilic hydrophobic particles increase inter-particle interaction Langmuir latex layer liquid film liquid interface mechanism melt meniscus metal foams monolayers Nagayama nanoparticles oil drops oil-water interface oxide P.A. Kralchevsky particle monolayers particle surface permission Phys Pileni polystyrene protein radius repulsion rheology shown in Figure silica silica particles silicone oil solid particles solution spheres stabilised structure substrate surface tension surfactant Taken from Ref thickness ticles tion wettability wetting
Popular passages
Page 237 - R. Wang, K. Hashimoto A. Fujishima, M. Chikuni. E. Kojima. A. Kitamura. M. Shimohigoshi and T. Watanabe: Nature 388 ( 1997) 431.
Page 292 - H. Wennerstrom, The Colloidal Domain: Where Physics, Chemistry, Biology, and Technology Meet, VCH Publishers, New York, 1994, p.
Page 28 - ... solution of silica. The view which the writer was eventually led to adopt as to emulsification, was that it depended solely on the size of the particles constituting the precipitate. When the oil is broken up into small globules by being forced through the syringe, and these globules find themselves in the presence of a number of very much more minute solid particles, the latter will be attracted by the globules, and will form a coating or pellicle over the globules, preventing them from coming...
Page 309 - T thus turns out proportional to the modified Bessel function of the second kind and of order one.
Page 106 - Kinetics of Aggregation and Gelation", eds. F. Family and DP Landau (Elsevier, Amsterdam 1984) 25.