Glasses chemical engineering science

Dessimoz, A.-L., Cavin, L., Renken, A., Kiwi-Minsker, L. (2008). Liquid-liquid two-phase flow patterns and mass transfer characteristics in rectangular glass microreactors. Chemical Engineering Science, 63, 4035 044. 

Kalospiros, N.S. and M.E. Paulaitis, Molecular thermodynamic model for solvent-induced glass transitions in polymer supercritical-fluid systems. Chemical Engineering Science, 1994. 49(5) p. 659-668. 

Al Zaitone, B., Tropea, C. (2011). Evaporation of pure liquid droplets Comparison of droplet evaporation in an acoustic field versus glass-filament. Chemical Engineering Science, 66, 3914-3921. 

In the last years increasing research activities in the fields of membrane science [1, 2], chemical sensors [3], confined matter [4] and micro-reaction engineering [5] have evoked a new interest on porous glass membranes. Furthermore, such membranes are ideal model systems for the investigation of transport processes in porous structures. This broad spectrum of applications demands variable texture properties. 

Chynoweth, K. (1989) Glass transition and crystallization, in Cook, W. D. Guise, G. B. (Eds.) Polymer Update Science and Engineering, Melbourne Royal Australian Chemical Institute. 

Chemical bonding and electrical conductivity provide five major categories of engineered materials metals, polymers, ceramics/glasses, composites, and semiconductors. The properties of these materials are dependent on atomic- and microscopic-scale stmcture, as well as on the way in which a given material is processed. Materials science enables the selection of the optimal material for a given application, see also Ceramics Glass Physical Chemistry Polymers, Synthetic Semiconductors. 

I. Glass, J. Edward, 1937-. II. American Chemical Society. Division of Polymeric Materials Science and Engineering. III. Series. 

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