Colloids and interfacial science

Bramley, A.S., Hounslow, M.J. and Ryall, R.L., 1996a. Aggregation during precipitation from solution A method for extracting rates from experimental data. Journal of Colloid and Interfacial Science, 183, 155-165. 

Gelbard, F., Tambour, Y. and Seinfeld, J.H., 1980. Sectional representations for simulating aerosol dynamics. Journal of Colloid and Interfacial Science, 76, 541. 

Muralidar, R. and Ramkrishna, D., 1986. An inverse problem in agglomeration kinetics. Journal of Colloid and Interfacial Science, 112, 348-361. 

Nancollas, G.H. and Reddy, M.M., 1971. The crystallization of calcium caronate. II Calcite growth mechanism. Journal of Colloid and Interfacial Science, 37, 824-833. 

Hammond, J., Holubka, J., Durisin, A. and Dickie, R., "Abstract from Colloid and Interfacial Science Section ACS Miami Meeting, September, 1978. 

Eastoe, J. Hetherington, K.J. Dalton, J.S. Sharpe, D. Lu, J.R. Heenan, R.K. Microemulsions with dodecyldimethyl-ammonium bromide studies by contrast variation. Journal of Colloid and Interfacial Science 1997, 190, 449-455. 

The interaction forces and potentials between two charged surfaces in an electrolyte are fundamental to the analysis of colloidal systems and are associated with the formation of electrical double layers (EDLs) in vicinity of the solid surfaces. The charged surfaces typically interact across a solution that contains a reservoir of ions, as a consequence of the dissociation of the electrolyte that is already present. In colloid and interfacial sciences, the EDL interaction potential, coupled with the van der Waals interaction potential, leads to the fimdamental understanding of inter-siuface interaction mechanisms, based on the Derjaguin-Landau-Verwey-Overbeek (DLVO) theory [1]. In practice, the considerable variations in the EDL interaction, brought about by the variations in electrolytic concentration of the dispersing medium, pH of the medium, and the siuface chemistry, lead to a diverse natiue of the colloidal behavior. A fundamental understanding of the physics of EDL interactions, therefore, is of prime importance in... 

There are many journals devoted to polymers and these cover preparation, properties, fabrication and application. Polymers are often dealt with in journals devoted to materials science, mechanical engineering, colloidal and interfacial science. 

Recipes leading to nanoparticles are published in almost every edition of Langmuir, the Journal of Colloidal and Interfacial Science, the Journal of the American Ceramics Society, and the Chemistry of Materials. These articles typically discuss how the particles are prepared and their properties. Rarely are detailed mechanistic discussions made that deal with both the solution chemistry leading to the sohd phase as well as the mechanisms leading to a narrow size distribution. Rather than providing a litany of recipes, in this paper we discuss a few systems where details of the solution chemistry and mechanisms of growth of uniform particles have been investigated. 

Handbook on Colloid and Interfacial Science, Taylor Francis (CRC Press), Boca Raton, FL. 

G.-Q. Lu, and A. Wieckowski, Heterogeneous Electrocatalysis A Core field of Interfacial Science, Current opinion in Colloid and Interface Science 5, 95 (2000). 

The National Science Formdation should expand its support to surface and interfacial engineering, focusing on surface chemistry, catalysis, electrochemistry, colloid and interfacial... 

The Division of Chemical Sciences in OER supports basic chemical research. The primary involvement of chemical engineers with this program has been in the areas of catalysis and separations. Given the broad range of energy apphcations in which the structure and chemistry of interfaces is important, the committee recommends that the Division undertake an initiative in the chemical control of surfaces, interfaces, and microstractures. This would include support of work by both chemists and chemical engineers in the areas of surface chemistry, plasma chemistry, and colloid and interfacial chemistry. 

Ding, P., Wolf, B., Frith, W.J., Clark, A.H., Norton, I.T., Pacek, A.W. (2002). Interfacial tension in phase-separated gelatin / dextran aqueous mixtures. Journal of Colloid and Interface Science, 253, 367-376. 

Wooster, T.J., Augustin, M.A. (2006). p-Factoglobulin-dextran Maillard conjugates their effect on interfacial thickness and emulsion stability. Journal of Colloid and Interface Science, 303, 564-572. 

Bos, M.A., van Vliet, T. (2001). Interfacial rheological properties of adsorbed protein layers and surfactants. Advances in Colloid and Interface Science, 91, 437-471. 

Murray, B.S. (2002). Interfacial rheology of food emulsifiers and proteins. Current Opinion in Colloid and Interface Science, 7, 426 131. 

Husband, F.A., Wilde, P.J., Mackie, A.R., Garrood, M.J. (1997). A comparison of the functional and interfacial properties of p-casein and dephosphorylated p-casein. Journal of Colloid and Interface Science, 195, 77-85. 

Kotsmar, Cs., Pradines, V., Alahverdjieva, V.S., Aksenenko, E.V., Fainerman, V.B., Kovalchuk, V.E, Kragel, J., Leser, M.E., Noskov, B.A., Miller, R. (2009). Thermodynamics, adsorption kinetics and rheology of mixed protein-surfactant interfacial layers. Ach cmces in Colloid and Interface Science, 150, 41-54. 

Kragel, J., Derkatch, S.R., Miller, R. (2008). Interfacial shear rheology of protein-surfactant layers. Achwnces in Colloid and Interface Science, 144, 38-53. 

Zhichu, B. Zhenshu, Z. Fei, X. Yueying, Q. and Jiayong, Y. (1999). Wettability, Oil Recovery, and Interfacial Tension with an SDBS-Dodecane-Kaolin System, Journal of Colloid and Interface Science, 214, 368-372. 

M. Manciu, O. Calvo, E. Ruckenstein Polarization model for poorly-organized interfacial water Hydration forces between silica surfaces, ADVANCES IN COLLOID AND INTERFACE SCIENCE 127 (2006) 29-42. 

Dr. Lee teaches colloidal and surface science as well as general materials processing at Clemson University. He is also director of Nanofabritech. His current research activities are focused on chemical processing of ceramic and polymeric materials, paying particular attention to surface and interfacial chemistry. 

Brenner H (1979) A Micromechanical Derivation of the Differential Equation of Interfacial Statics. Journal of Colloid and Interface Science 68 (3) 422-439... 

Cayias, J.L., Schechter, R.S., Wade, W.H., 1977. The utilization of petroleum sulfonates for producing low interfacial tensions between hydrocarbons and water. Journal of Colloid and Interface Science 59 (1), 31-38. 

A fundamental understanding of colloid and interface science in C02-based systems is emerging on the basis of recent studies of interfacial tension and... 

---