Foams and Emulsions

Foreword. I. Surface energy and surface rheology: Relation to foam properties; D. Langevin. II. Foams and emulsions: Their stability and breakdown by solid particles and liquid droplets. The colloid chemistry of a dog's breakfast; R. Aveyard, et al. III. An introduction to forces and structure in individual foam and emulsion films; V. Bergeron. IV. Structure of foam films containing additional polyelectrolytes; R. von Klitzing, et al. V. Drainage of foam films; R. Tsekov. VI. Foam evolution in two dimensions. A particular limit of domain growth; J. Stavans. VII. Statistical thermodynamics of foam; N. Rivier. VIII. Polygonal networks resulting from dewetting; U. Thiele et al. IX. Two-dimensional magnetic liquid froth; F. Elias, et al. X. Cellular structures in metallurgy; Y.J.M. Bréchet, D. Weygand. XI. The compression of closed-cell polymer foams; N.J. Mills, H.X. Zhu. XII. Hard cellular materials in the human body: Properties and productions of foamed polymers for bone replacement; C.S. Pereira, et al. XIII. Rheology and glassy dynamics of foams; M.E. Cates, P. Sollich. XIV. Surfactants and stress conditions at fluid interfaces; K.J. Stebe, C.D. Eggleton. XV. Foam micromechanics. Structure and rheology of foams, emulsions, and cellular solids; A.M. Kraynik, et al. XVI. The structure and geometry of foams; D. Weaire, et al. XVII. Rheology and drainage of liquid foams; G. Verbist, et al. XVIII. Electrical and thermal transport infoams; R. Phelan, et al. XIX. Decontamination of nuclear components through the use of foams; G. Boissonnet, et al. XX. Foams in porous media; W.R. Rossen. XXI. Application of the Voronoi tessellations to the study of flow of granular materials; J. Lemaitre, et al. XXII. Determination of real three-dimensional foam structure using optical tomography; C. Monnereau, M. Vignes-Adler. XXIII. The geometry of bubbles and foams; J.M. Sullivan. XXIV. Crystal structures as periodic foams and vice versa; M. O'Keeffe. XXV. Inverse micellar lyotropic